Appraisal of techniques and equipment for cutting force measurement

被引:15
|
作者
Audy J. [1 ]
机构
[1] Faculty of Regional Professional Studies, Edith Cowan University, Bunbury
来源
关键词
Cutting force measurement; Error sources; Frequency analysis; Piezocrystals; Strain gauges;
D O I
10.1631/jzus.2006.A1781
中图分类号
学科分类号
摘要
Current research focused on the assessment of metal machining process parameters and on the development of adaptive control, shows that machine performance, work-piece and tool material selections, tool life, quality of machined surfaces, the geometry of cutting tool edges, and cutting conditions are closely related to the cutting forces. This information is of great interest to cutting tool manufactures and users alike. Over the years there have been significant developments and improvements in the equipment used to monitor such forces. In 1930 mechanical gauges were replaced by resistance strain gauges, and some 30 years later compact air gauge dynamometers were invented. Since this time intensive research has continued being directed towards developing new approaches to cutting force measurement. The Kistler Company, well-known manufacturer of acceleration and piezoelectrical dynamometers, has worked in this field for more than three decades, and developed very sensitive devices. While leading manufacturing research laboratories are often equipped with this technology, classical electrical strain gauges and other dynamometers of individual designs are still commonly used in industry. The present paper presents data obtained using different techniques of force measurement in metal machining processes. In particular, areas of uncertainties, illustrated through results concerning the turning process, are analysed, leading to an appraisal of the current status of these measurements and their significance.
引用
收藏
页码:1781 / 1789
页数:8
相关论文
共 50 条
  • [21] Cutting force measurement of electrical jigsaw by strain gauges
    Kazup, L.
    Szarka, A. Varadine
    2016 JOINT IMEKO TC1-TC7-TC13 SYMPOSIUM: METROLOGY ACROSS THE SCIENCES: WISHFUL THINKING?, 2016, 772
  • [22] Development of current sensor for cutting force measurement in turning
    Li, XL
    IEEE TRANSACTIONS ON INSTRUMENTATION AND MEASUREMENT, 2005, 54 (01) : 289 - 296
  • [23] Investigation of cutting force in gear skiving by measurement and simulation
    Boujnah, Haythem
    Yamada, Yuki
    Kawai, Kengo
    Mori, Masahiko
    CIRP ANNALS-MANUFACTURING TECHNOLOGY, 2024, 73 (01) : 329 - 332
  • [24] The cutting force measurement in a fixturing setup with instrumented locators
    Hameed, RA
    Mannan, MA
    Nee, AYC
    INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2004, 23 (11-12): : 783 - 793
  • [25] INTEGRATED FORCE MEASUREMENT FOR ONLINE CUTTING GEOMETRY INSPECTION
    RAO, BC
    GAO, RX
    FRIEDRICH, CR
    IEEE TRANSACTIONS ON INSTRUMENTATION AND MEASUREMENT, 1995, 44 (05) : 977 - 980
  • [26] MEASUREMENT AND REPRESENTATION OF CUTTING FORCE DUE TO OBLIQUE MACHINING
    HSU, TC
    CHOI, CY
    INTERNATIONAL JOURNAL OF MACHINE TOOL DESIGN AND RESEARCH, 1970, 10 (01): : 49 - &
  • [27] Semi-in-situ cutting force measurement of a jigsaw
    Apati, Sandor
    Hegedus, Gyorgy
    Hajdu, Sandor
    RESULTS IN ENGINEERING, 2025, 25
  • [28] Cutting-force measurement on the basis of the shaping trajectory
    Yurkevich V.V.
    Russian Engineering Research, 2011, 31 (11) : 1095 - 1096
  • [29] Study on the correction of cutting force measurement with table dynamometer
    Wan, Min
    Yin, Wei
    Zhang, Wei-Hong
    9TH INTERNATIONAL CONFERENCE ON DIGITAL ENTERPRISE TECHNOLOGY - INTELLIGENT MANUFACTURING IN THE KNOWLEDGE ECONOMY ERA, 2016, 56 : 119 - 123
  • [30] End-mill Evaluation By Measurement Of Cutting Force
    Gomi, N.
    Ishii, N.
    Hozumi, R.
    Kumehara, H.
    ADVANCED MATERIAL SCIENCE AND TECHNOLOGY, PTS 1 AND 2, 2011, 675-677 : 681 - 684