Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed

Bjørn Hvejsel, Lasse Langmack, Anders Kristensen, Lars Damkilde

    Publikation: Bidrag til bog/antologi/rapport/konference proceedingKonferenceartikel i proceedingForskningpeer review

    Resumé

    In order to obtain an estimate of the critical number of rotations for a high speed milling tool crack growth analysis has been performed. The crack growth is determined from stress intensities computed by J-integrals. The problem is solved in 3D using ANSYS. Boundary conditions arising from a contact pressure caused by a conical coupling are computed by contact elements allowing for both friction and plasticity and comparison with strain gauge measurements shows good agreement. The complex load configuration involves dynamical effects such as inertia and cutting force, and non-linear FEM analysis has been performed in ANSYS. The result of the analysis is a number of stress intensity factors for each load case, i.e. six load cases. These are superposed to obtain stress intensity factors for combined load cases. The estimates of the critical rotational speed provided by this method has proven to be applicable for the industrial partner, and less conservative compared to estimates determined from the code of practice.
    OriginalsprogEngelsk
    TitelProceedings of 15th Nordic Seminar on Computational mechanics
    Antal sider4
    ForlagDepartment of Mechanical Engineering, Aalborg University
    Publikationsdato2002
    Sider131-134
    ISBN (Trykt)8789206673
    StatusUdgivet - 2002
    Begivenhed 15th Nordic Seminar on Computational Mechanics - Aalborg, Danmark
    Varighed: 18 okt. 200219 okt. 2002

    Seminar

    Seminar 15th Nordic Seminar on Computational Mechanics
    LandDanmark
    ByAalborg
    Periode18/10/200219/10/2002

    Fingerprint

    Loads (forces)
    Stress intensity factors
    Crack propagation
    Strain gages
    Plasticity
    Boundary conditions
    Friction
    Finite element method

    Emneord

    • Tools
    • Rotational Speeds
    • Precision Milling
    • Linear Finite Element Analysis
    • Cutting Forces

    Citer dette

    Hvejsel, B., Langmack, L., Kristensen, A., & Damkilde, L. (2002). Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed. I Proceedings of 15th Nordic Seminar on Computational mechanics (s. 131-134). Department of Mechanical Engineering, Aalborg University.
    Hvejsel, Bjørn ; Langmack, Lasse ; Kristensen, Anders ; Damkilde, Lars. / Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed. Proceedings of 15th Nordic Seminar on Computational mechanics. Department of Mechanical Engineering, Aalborg University, 2002. s. 131-134
    @inproceedings{527c3af0809411db8b97000ea68e967b,
    title = "Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed",
    abstract = "In order to obtain an estimate of the critical number of rotations for a high speed milling tool crack growth analysis has been performed. The crack growth is determined from stress intensities computed by J-integrals. The problem is solved in 3D using ANSYS. Boundary conditions arising from a contact pressure caused by a conical coupling are computed by contact elements allowing for both friction and plasticity and comparison with strain gauge measurements shows good agreement. The complex load configuration involves dynamical effects such as inertia and cutting force, and non-linear FEM analysis has been performed in ANSYS. The result of the analysis is a number of stress intensity factors for each load case, i.e. six load cases. These are superposed to obtain stress intensity factors for combined load cases. The estimates of the critical rotational speed provided by this method has proven to be applicable for the industrial partner, and less conservative compared to estimates determined from the code of practice.",
    keywords = "Tools, Rotational Speeds, Precision Milling, Linear Finite Element Analysis, Cutting Forces, Tools, Rotational Speeds, Precision Milling, Linear Finite Element Analysis, Cutting Forces",
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    language = "English",
    isbn = "8789206673",
    pages = "131--134",
    booktitle = "Proceedings of 15th Nordic Seminar on Computational mechanics",
    publisher = "Department of Mechanical Engineering, Aalborg University",

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    Hvejsel, B, Langmack, L, Kristensen, A & Damkilde, L 2002, Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed. i Proceedings of 15th Nordic Seminar on Computational mechanics. Department of Mechanical Engineering, Aalborg University, s. 131-134, 15th Nordic Seminar on Computational Mechanics, Aalborg, Danmark, 18/10/2002.

    Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed. / Hvejsel, Bjørn; Langmack, Lasse; Kristensen, Anders; Damkilde, Lars.

    Proceedings of 15th Nordic Seminar on Computational mechanics. Department of Mechanical Engineering, Aalborg University, 2002. s. 131-134.

    Publikation: Bidrag til bog/antologi/rapport/konference proceedingKonferenceartikel i proceedingForskningpeer review

    TY - GEN

    T1 - Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed

    AU - Hvejsel, Bjørn

    AU - Langmack, Lasse

    AU - Kristensen, Anders

    AU - Damkilde, Lars

    PY - 2002

    Y1 - 2002

    N2 - In order to obtain an estimate of the critical number of rotations for a high speed milling tool crack growth analysis has been performed. The crack growth is determined from stress intensities computed by J-integrals. The problem is solved in 3D using ANSYS. Boundary conditions arising from a contact pressure caused by a conical coupling are computed by contact elements allowing for both friction and plasticity and comparison with strain gauge measurements shows good agreement. The complex load configuration involves dynamical effects such as inertia and cutting force, and non-linear FEM analysis has been performed in ANSYS. The result of the analysis is a number of stress intensity factors for each load case, i.e. six load cases. These are superposed to obtain stress intensity factors for combined load cases. The estimates of the critical rotational speed provided by this method has proven to be applicable for the industrial partner, and less conservative compared to estimates determined from the code of practice.

    AB - In order to obtain an estimate of the critical number of rotations for a high speed milling tool crack growth analysis has been performed. The crack growth is determined from stress intensities computed by J-integrals. The problem is solved in 3D using ANSYS. Boundary conditions arising from a contact pressure caused by a conical coupling are computed by contact elements allowing for both friction and plasticity and comparison with strain gauge measurements shows good agreement. The complex load configuration involves dynamical effects such as inertia and cutting force, and non-linear FEM analysis has been performed in ANSYS. The result of the analysis is a number of stress intensity factors for each load case, i.e. six load cases. These are superposed to obtain stress intensity factors for combined load cases. The estimates of the critical rotational speed provided by this method has proven to be applicable for the industrial partner, and less conservative compared to estimates determined from the code of practice.

    KW - Tools

    KW - Rotational Speeds

    KW - Precision Milling

    KW - Linear Finite Element Analysis

    KW - Cutting Forces

    KW - Tools

    KW - Rotational Speeds

    KW - Precision Milling

    KW - Linear Finite Element Analysis

    KW - Cutting Forces

    M3 - Article in proceeding

    SN - 8789206673

    SP - 131

    EP - 134

    BT - Proceedings of 15th Nordic Seminar on Computational mechanics

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    Hvejsel B, Langmack L, Kristensen A, Damkilde L. Prediction Of Limit Rotational Speeds In A High-Speed Tool Bason FE Computed J-Integral Intensitiesed. I Proceedings of 15th Nordic Seminar on Computational mechanics. Department of Mechanical Engineering, Aalborg University. 2002. s. 131-134