Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling Operations

Compared to milling on a macro scale, the micromilling process has several cumbersome points that need to be addressed. Rapid tool wear and fracture, severe burr formation, and poor surface quality are the major problems encountered in the micromilling process. This study aimed to reveal the effect...

Full description

Bibliographic Details
Main Authors: Ugur Koklu, Gültekin Basmaci
Format: Article
Language:English
Published: MDPI AG 2017-10-01
Series:Metals
Subjects:
Online Access:https://www.mdpi.com/2075-4701/7/10/426
id doaj-bdc285574af241c7b0e893b9f65a7e6c
record_format Article
spelling doaj-bdc285574af241c7b0e893b9f65a7e6c2020-11-24T21:44:57ZengMDPI AGMetals2075-47012017-10-0171042610.3390/met7100426met7100426Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling OperationsUgur Koklu0Gültekin Basmaci1Department of Mechanical Engineering, Karamanoglu Mehmetbey University, Karaman 70100, TurkeyDepartment of Mechanical Engineering, Mehmet Akif Ersoy University, Burdur 15030, TurkeyCompared to milling on a macro scale, the micromilling process has several cumbersome points that need to be addressed. Rapid tool wear and fracture, severe burr formation, and poor surface quality are the major problems encountered in the micromilling process. This study aimed to reveal the effect of cutting path strategies on the cutting force and surface quality in the micromilling of a pocket. The hatch zigzag tool path strategy and the contour climb tool path strategy under different cooling conditions (e.g., dry, air blow, and flood coolant) at fixed cutting parameters. The micromilling tests revealed that better results were obtained with the use of the contour tool path strategy in terms of cutting forces (by up to ~43% compared to the dry condition) and surface quality (by up to ~44% compared to the air blow condition) when compared to the hatch tool path strategy. In addition, the flood coolant reduces the cutting temperature and eliminates chips to significantly enhance the quality of the micro milled surface.https://www.mdpi.com/2075-4701/7/10/426micromillingtool path strategycutting forcesurface quality
collection DOAJ
language English
format Article
sources DOAJ
author Ugur Koklu
Gültekin Basmaci
spellingShingle Ugur Koklu
Gültekin Basmaci
Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling Operations
Metals
micromilling
tool path strategy
cutting force
surface quality
author_facet Ugur Koklu
Gültekin Basmaci
author_sort Ugur Koklu
title Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling Operations
title_short Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling Operations
title_full Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling Operations
title_fullStr Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling Operations
title_full_unstemmed Evaluation of Tool Path Strategy and Cooling Condition Effects on the Cutting Force and Surface Quality in Micromilling Operations
title_sort evaluation of tool path strategy and cooling condition effects on the cutting force and surface quality in micromilling operations
publisher MDPI AG
series Metals
issn 2075-4701
publishDate 2017-10-01
description Compared to milling on a macro scale, the micromilling process has several cumbersome points that need to be addressed. Rapid tool wear and fracture, severe burr formation, and poor surface quality are the major problems encountered in the micromilling process. This study aimed to reveal the effect of cutting path strategies on the cutting force and surface quality in the micromilling of a pocket. The hatch zigzag tool path strategy and the contour climb tool path strategy under different cooling conditions (e.g., dry, air blow, and flood coolant) at fixed cutting parameters. The micromilling tests revealed that better results were obtained with the use of the contour tool path strategy in terms of cutting forces (by up to ~43% compared to the dry condition) and surface quality (by up to ~44% compared to the air blow condition) when compared to the hatch tool path strategy. In addition, the flood coolant reduces the cutting temperature and eliminates chips to significantly enhance the quality of the micro milled surface.
topic micromilling
tool path strategy
cutting force
surface quality
url https://www.mdpi.com/2075-4701/7/10/426
work_keys_str_mv AT ugurkoklu evaluationoftoolpathstrategyandcoolingconditioneffectsonthecuttingforceandsurfacequalityinmicromillingoperations
AT gultekinbasmaci evaluationoftoolpathstrategyandcoolingconditioneffectsonthecuttingforceandsurfacequalityinmicromillingoperations
_version_ 1725907562309615616