A26 Mechanism of Material Removal in Nanomachining using AFM Diamond Tip(M4 processes and micro-manufacturing for science)
スポンサーリンク
概要
- 論文の詳細を見る
Nanoscale machining experimets on the fused quartz surface has been performed using an atomic force microscope combined with a two-axis capacitive force/displacement transducer. The minimum normal force f_<nP> when a reproducible groove begins to be formed with an increase in normal force f_n is about 4.7 μN. The minimum critical normal force f_<nR>, tangential force f_<tR> and groove depth d_<gR> when the material removal process begins with an increase in normal force are 33.7 μN, 18.7 μN and 4.3 nm, respectively. The feature change in swelling ratio R_s and the ratio of force components f_l/f_n at the critical normal force f_<nR> can be used to detect a critical condition when the material deformation behavior changes from the plastic deformation to the removal process.
- 一般社団法人日本機械学会の論文
- 2009-12-01
著者
-
ICHIDA Yoshio
Department of Mechanical Systems Engineering, Utsunomiya University
-
Ichida Yoshio
Department Of Mechanical And Intelligent Engineering Graduate School Of Engineering Utsunomiya Unive
-
YAMAGUCH Takashi
Department of Mechanical and Intelligent Engineering, Graduate School of Engineering, Utsunomiya Uni
-
SASANUMA Makoto
Department of Mechanical and Intelligent Engineering, Graduate School of Engineering, Utsunomiya Uni
-
Yamaguch Takashi
Department Of Mechanical And Intelligent Engineering Graduate School Of Engineering Utsunomiya Unive
-
Sasanuma Makoto
Department Of Mechanical And Intelligent Engineering Graduate School Of Engineering Utsunomiya Unive
関連論文
- Characterization of Wheel Surface Topography in cBN Grinding(Advanced Manufacturing Technology [I])
- Characterization of Wheel Surface Topography in CBN Grinding(CBN grinding technology)
- OS5(P)-23(OS05W0268) Nanoscratching on Chromium Carbides in Cold Work Die Steel Using an Atomic Force Microscope
- A26 Mechanism of Material Removal in Nanomachining using AFM Diamond Tip(M4 processes and micro-manufacturing for science)
- Formation Mechanism of Finished Surface in Ultrahigh-Speed Grinding with cubic Boron Nitride (cBN) Wheels(Advanced Manufacturing Technology [I])
- Profile Grinding of Superalloys with Ultrafine-Crystalline cBN Wheels(Advanced Manufacturing Technology [I])
- Real-Time Synthesis and Control by Corrected Inverse Transfer Function of an NC Table(Precision positioning and control technology)
- Development of fine-coarse stage by coaxial arrangement of two stepping motors(Precision positioning and control technology)
- Profile Grinding of Superalloys with Ultrafine-Crystalline CBN Wheels(CBN grinding technology)
- Formation Mechanism of Finished Surface in Ultra-High Speed Grinding with CBN Wheels(CBN grinding technology)
- Effects of Uniformity in Wheel Structure on Grinding Characteristics of Vitrified CBN Wheels(CBN grinding technology)
- OS5(P)-22(OS05W0267) Evaluation of Local Work Affected Layer Based on Magnetic Domain Analysis Using Magnetic Force Microscopy
- 336 Study on accuracy compensation of a machining center based on measurement results of machined workpiece
- Fractal Analysis of Grain Cutting Edge Wear in Superabrasive Grinding
- Wear Characteristics of Vitrified cBN Grinding Wheels
- Chemical Mechanical Polishing for Oxygen Free Copper with Manganese Oxide Abrasives