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    KCI등재 SCIE

    Near Net-Shape Five-axis Face Milling of Marine Propellers

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    https://www.riss.kr/link?id=A104307107

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    We present an optimal cutter location (CL) data computation for face-milling of large marine propellers composed
    of CL point optimization and CL path optimization on a given tool path. The CL point optimization at a single
    cutter contact (CC) point is conducted by maximizing the effective radius of the face milling cutter, while the CL
    path optimization on a series of CC points is performed by conforming deviation of the tool-swept surface from the
    design surface between consecutive CL data to a given machining tolerance. The proposed algorithm was
    implemented and applied to the machining of a large marine propeller which proved effective from a quantitative
    point of view, and is used on the shop floor in a Korean ship building company.
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    We present an optimal cutter location (CL) data computation for face-milling of large marine propellers composed of CL point optimization and CL path optimization on a given tool path. The CL point optimization at a single cutter contact (CC) point is...

    We present an optimal cutter location (CL) data computation for face-milling of large marine propellers composed
    of CL point optimization and CL path optimization on a given tool path. The CL point optimization at a single
    cutter contact (CC) point is conducted by maximizing the effective radius of the face milling cutter, while the CL
    path optimization on a series of CC points is performed by conforming deviation of the tool-swept surface from the
    design surface between consecutive CL data to a given machining tolerance. The proposed algorithm was
    implemented and applied to the machining of a large marine propeller which proved effective from a quantitative
    point of view, and is used on the shop floor in a Korean ship building company.

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    참고문헌 (Reference)

    1 Jensen, C. G, "Tool selection for five-axis curvature matched machining" 34 (34): 251-266, 2002

    2 Lartigue, C, "Tool path deformation in 5-axis flank milling using envelope surface" 35 (35): 375-382, 2003

    3 Li, Z, "The analysis of correlative error in principal axis method for five-axis machining of sculptured surfaces" 45 (45): 1031-1036, 2005

    4 Gong, H, "Second order approximation of tool envelope surface for 5-axis machining with single point contact" 40 (40): 604-615, 2008

    5 Choi, B. K, "Sculptured Surface Machining" Kluwer Academic Publishers 1998

    6 Jun, C.-S, "Optimizing tool orientations for 5-axis machining by configuration-space search method" 35 (35): 549-566, 2003

    7 Makhanov, S, "Optimization and correction of the tool path of the five-axis milling machine: Part 1. Spatial optimization" 75 (75): 210-230, 2007

    8 Ivanenko, S. A, "New numerical algorithms to optimize cutting operations of a fiveaxis milling machine" 49 (49): 395-413, 2004

    9 Warkentin, A, "Multi-point tool positioning strategy for 5-axis machining of sculptured surfaces" 17 : 83-100, 2000

    10 Chua, C. H, "Machining accuracy improvement in five-axis flank milling of ruled surfaces" 48 (48): 914-921, 2008

    1 Jensen, C. G, "Tool selection for five-axis curvature matched machining" 34 (34): 251-266, 2002

    2 Lartigue, C, "Tool path deformation in 5-axis flank milling using envelope surface" 35 (35): 375-382, 2003

    3 Li, Z, "The analysis of correlative error in principal axis method for five-axis machining of sculptured surfaces" 45 (45): 1031-1036, 2005

    4 Gong, H, "Second order approximation of tool envelope surface for 5-axis machining with single point contact" 40 (40): 604-615, 2008

    5 Choi, B. K, "Sculptured Surface Machining" Kluwer Academic Publishers 1998

    6 Jun, C.-S, "Optimizing tool orientations for 5-axis machining by configuration-space search method" 35 (35): 549-566, 2003

    7 Makhanov, S, "Optimization and correction of the tool path of the five-axis milling machine: Part 1. Spatial optimization" 75 (75): 210-230, 2007

    8 Ivanenko, S. A, "New numerical algorithms to optimize cutting operations of a fiveaxis milling machine" 49 (49): 395-413, 2004

    9 Warkentin, A, "Multi-point tool positioning strategy for 5-axis machining of sculptured surfaces" 17 : 83-100, 2000

    10 Chua, C. H, "Machining accuracy improvement in five-axis flank milling of ruled surfaces" 48 (48): 914-921, 2008

    11 Yoon, J, "Locally optimal cutting positions for 5-axis sculptured surface machining" 35 (35): 69-81, 2003

    12 Gong, H, "Improved positioning of cylindrical cutter for flank milling ruled surfaces" 37 (37): 1205-1213, 2005

    13 Park, J. W, "Hybrid cutting simulation via discrete vector model" 37 (37): 419-430, 2005

    14 Takeuchi, Y, "Generation of 5 Axis Control Collision-free Tool Path and Postprocessing for NC Data" 41 (41): 535-542, 1992

    15 Toensmeier, P, "Five-axis machining is a key requirement for high-precision molds" Moldmaking Technology 2006

    16 Li, C, "Error measurements for flank milling" 37 (37): 1459-1468, 2005

    17 Choi, B. K, "Cutter-location Data Optimization in 5-Axis Surface Machining" 25 (25): 377-386, 1993

    18 Anotaipaiboon, W, "Curvilinear spacefilling curves for five-axis machining" 40 (40): 350-367, 2008

    19 Morishige, K, "Collision-free Tool Path Generation Using 2-Dimensional C-Space for 5-Axis Control Machining" 13 (13): 393-400, 1997

    20 Hopkin, B, "Benefits of positional five-axis machining" Moldmaking Technology 2005

    21 Chiou, J, "Accurate tool position for five-axis ruled surface machining by swept envelope approach" 36 (36): 967-974, 2004

    22 Perez, T., "A simple motion-planning algorithm for general robot manipulators" 3 (3): 224-238, 1987

    23 Mason, F, "5×5 for High-productivity Airfoil Milling" American Machinist 37-39, 1991

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    학술지 이력

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    2023 평가 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
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    2005-05-30 학술지명변경 한글명 : International Journal of the Korean of Precision Engineering -> International Journal of Precision Engineering and Manufacturing
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    기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
    2016 1.38 0.71 1.08
    KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
    0.92 0.85 0.583 0.11
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