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Title: | A novel approach to use internally cooled cutting tools in dry metal cutting |
Authors: | Uludağ Üniversitesi/Teknik Bilimler Meslek Yüksekokulu. Uludağ Üniversitesi/Mühendislik Fakültesi/Makine Mühendisliği Bölümü. Işık, Yahya Kuş, Abdil Coşkun, Salih Özdemir, Kadir Çakır, Mustafa Cemal AAG-9412-2021 8981150600 57196667786 26644674500 56485368500 57987557800 |
Keywords: | Engineering Materials science Internal cooling Tool life Metal cutting Coolant fluid Tool holder design Temperature Finish Wear Carbide cutting tools Carbides Cooling Cutting Fluid dynamics Health hazards Metal cutting Surface roughness Thermal management (electronics) Thermocouples Turning Coolant fluid Cutting temperature Environmental hazards Internal cooling Internally cooled cutting tools K-type thermocouples Tool holders Tool life Cutting tools |
Issue Date: | Jun-2017 |
Publisher: | Natl Inst Science Communication-Niscair |
Citation: | Işık, Y. vd. (2017). ''A novel approach to use internally cooled cutting tools in dry metal cutting''. Indian Journal of Engineering and Materials Sciences, 24(3), 239-246. |
Abstract: | This paper presents a new cooling method to be used in dry metal cutting. This new cooling method is based on a tool holder with cooling fluid circulating inside a closed internal cooling system. A prototype that facilitates the cooling from inside the tool holder was specifically designed and manufactured. For this study, a series of cutting trials was carried out to investigate the practicality and effectiveness of the internally cooled cutting tool concept. Two techniques, one using a K-type thermocouple and the second using an infrared (IR) pyrometer, were employed to estimate the temperatures of the tool and the tool-chip interface. Experiments were conducted on DIN 1.2379 cold work die steel (50 HRC) using CVD-coated CNMG 190608-IC907 carbide inserts. The experimental results for dry cutting and for the internally cooled tool were compared using fluid dynamic analysis implemented via the ANSYS Fluent FEA code. The internally cooled tool exhibited the advantages of better surface roughness and extended tool life: in addition, machining was enabled at a wider range of cutting speeds while avoiding environmental hazards and health problems. The results clearly indicated that internal cooling could sufficiently reduce the cutting temperature and consequently, by controlling the critical cutting temperature, was able to circumvent it during the turning process. This technique could generally be advantageous for the machining of hard materials. |
URI: | 0975-1017 http://hdl.handle.net/11452/30748 |
ISSN: | 09714588 |
Appears in Collections: | Scopus Web of Science |
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