Results 141 to 150 of about 57,579 (203)
High-Order Exponentially Fitted Methods for Accurate Prediction of Milling Stability. [PDF]
Micromachines (Basel)Wu Y +5 more
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Research Progress in Multidimensional Prediction of Machining-Induced Surface Residual Stress. [PDF]
Materials (Basel)Zou Z, Zhang X, Gong W.
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A mild and highly effective method of leaching metal from chalcopyrite using household chemicals. [PDF]
RSC AdvFang Z, Duchesne PN.
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Clinical Implementation of a Fully Digital Workflow for the Fabrication of a Maxillary Complete Denture: A Case Report. [PDF]
Dent J (Basel)Luna-Domínguez CR +5 more
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On the orientation dependence of ion-induced phase transformations in austenitic stainless steel. [PDF]
J Mater SciWhiteside J +3 more
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Fast calibration tools and strategy for five-axis milling machine
, 2015 Aguirre, Gorka +2 more
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Five-axis milling of spherical surfaces
International Journal of Machine Tools and Manufacture, 1996A new five-axis technique for machining of spherical surfaces with a radiused or flat bottom end mill is presented. The tool path generated by the proposed technique produces scallop free surfaces at a fraction of the time required by conventional milling using a ball nose end mill. The proposed method was verified experimentally on a wrist type and on
A. Warkentin, S. Bedi, F. Ismail
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Virtual Five-Axis Flank Milling of Jet Engine Impellers—Part I: Mechanics of Five-Axis Flank Milling
Journal of Manufacturing Science and Engineering, 2008This work is the first of a two part paper on cutting force prediction and feed optimization for the five-axis flank milling of jet engine impellers. In Part I, a mathematical model for predicting cutting forces is presented for five-axis machining with tapered, helical, ball-end mills with variable pitch and serrated flutes.
W. B. Ferry, Y. Altintas
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Volume 3: Design and Manufacturing, 2007
Jet engine impeller blades are flank-milled with tapered, helical, ball-end mills on five-axis machining centers. The impellers are made from difficult-to-cut titanium or nickel alloys, and the blades must be machined within tight tolerances. As a consequence, deflections of the tool and flexible workpiece can jeopardize the precision of the impellers ...
W. Ferry, Y. Altintas
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Jet engine impeller blades are flank-milled with tapered, helical, ball-end mills on five-axis machining centers. The impellers are made from difficult-to-cut titanium or nickel alloys, and the blades must be machined within tight tolerances. As a consequence, deflections of the tool and flexible workpiece can jeopardize the precision of the impellers ...
W. Ferry, Y. Altintas
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Journal of Manufacturing Science and Engineering, 2008
This paper presents process optimization for the five-axis flank milling of jet engine impellers based on the mechanics model explained in Part I. The process is optimized by varying the feed automatically as the tool-workpiece engagements, i.e., the process, vary along the tool path.
W. B. Ferry, Y. Altintas
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This paper presents process optimization for the five-axis flank milling of jet engine impellers based on the mechanics model explained in Part I. The process is optimized by varying the feed automatically as the tool-workpiece engagements, i.e., the process, vary along the tool path.
W. B. Ferry, Y. Altintas
openaire +1 more source