Investigation of machinability properties of soluble SiO2 doped nanofluids in milling cold work tool steels
Is this your thesis?
This record came from a bulk archive import. If it’s yours, link it to your profile.
Abstract (EN)
In this study, the effects of innovative and sustainable cooling-lubrication methods on machining parameters during the milling of CPOH cold work tool steel were investigated. Experiments were conducted on a CNC milling machine using an Al-TiN coated milling tool. The experiments were performed at two different cutting speeds (100 m/min and 130 m/min), two different feed rates (0,08 mm/rev and 0,1 mm/rev), and a constant depth of cut (0,7 mm). Nanofluids were prepared by adding SiO2 nanoparticles to synthetic oil. Machinability was evaluated by considering surface roughness (Ra), cutting temperature (Tc), tool wear (Vb), and power consumption values. Among all the parameters evaluated, the best cooling-lubrication condition affecting machining performance was found to be the nanofluid containing 0.2 wt.% of SiO2 nanoparticles.
Author
Caner Gülseren
How to Cite
Caner Gülseren (Master Thesis). Investigation of machinability properties of soluble SiO2 doped nanofluids in milling cold work tool steels, 2024, Bingöl University.
Keywords
License
Tüm Hakları Saklıdır
This work is shared under the specified license terms.
More theses from Bingöl University
- The path of two ancient disciplines: The symbiotic journey of chess and philosophy(2024)
- The economic effects of social solidarity in Islam: The Karz-i Hasan model – The example of Bingöl(2024)
- Comparison of controllers used in a converter with two-stage topology in standalone single-phase PV inverter structures(2023)
- Anthropomorphic thought in early Imami Shiites(2023)
- Investigation of the attitudes of the families of the students studying in rural schools towards sports facilities and physical education and sports lessons(2024)
- An evaluation of quran education and recitation science in imam hatip high schools: Şiirt province example(2024)
