Quantitative analysis of cooling and lubricating effects of graphene oxide nanofluids in machining titanium alloy Ti6Al4V

Li, Guangxian; Yi, Shuang; Li, Nan; Pan, Wencheng; Wen, Cuie; Ding, Songlin

doi:10.1016/j.jmatprotec.2019.04.035

Cited by 72 publications

(17 citation statements)

References 48 publications

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“…12. Cutting forces and roughness of machined surface under 1-bar coolant pressure for conventional coolant and MQL with graphene oxide nanosheets of 0.1% and 0.5% weight percentages [29] Rys. 12.…”

Section: Smarowanie Minimalne -Mqlmentioning

confidence: 99%

“…12. Siły skrawania i chropowatość obrabianej powierzchni dla konwencjonalnego chłodziwa pod ciśnieniem 1 bar i MQL z nanopłytkami tlenku grafenu 0,1% i 0,5% wagowo [29] Fig. 11.…”

Section: Smarowanie Minimalne -Mqlunclassified

“…Główna siła skrawania i chropowatość powierzchni maleją wraz ze wzrostem stężenia nanopłytek tlenku grafenu w płynie chłodzącym (rys. 12) [29]. Innym sposobem na poprawę efektywności MQL w obróbce materiałów lotniczych jest wprowadzanie innowacyjnego sposobu podawania medium.…”

Section: Smarowanie Minimalne -Mqlunclassified

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New developments in cooling techniques for machining superalloys

Jemielniak¹

2021

Mechanik

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The paper presents an update of the recent literature on advances in cooling techniques for machining of difficult to machine materials such as nickel and titanium-based alloys used in aero-engine and aerostructure applications. The review covers: cryogenic machining, minimum quantity lubrication, the combination of MQL and cryogenic cooling, and high-pressure lubricoolant supply. Examples of applications in industrial processes are also given.

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Section: Smarowanie Minimalne -Mqlmentioning

confidence: 99%

“…12. Siły skrawania i chropowatość obrabianej powierzchni dla konwencjonalnego chłodziwa pod ciśnieniem 1 bar i MQL z nanopłytkami tlenku grafenu 0,1% i 0,5% wagowo [29] Fig. 11.…”

Section: Smarowanie Minimalne -Mqlunclassified

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New developments in cooling techniques for machining superalloys

Jemielniak¹

2021

Mechanik

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“…Khandekar et al, mentioned that the nanofluid has improved conduction, convection and wettability compare to the conventional cutting fluid [27]. The superior properties of the nanofluid make them to withstand the high temperature at a longer period of time [59].…”

Section: Authors Cutting Fluidmentioning

confidence: 99%

Nanofluid as an Alternative Coolant in Machining: A Review

Kadirgama¹

2020

ARFMTS

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This review paper is concerned about the important of nanofluid in machining. It is discussed in several parts such as cutting force, surface roughness, tool life and tool wear. Various type of nanofluid is discussed in this paper with an effect on the surface roughness, force, tool life, and wear. Nanofluid plays a significant role in the increment of tool life and reducing tool wear. Nanofluid creates an artificial layer on top of the workpiece, and this reduces wear at the cutting tool. It seems that nanofluid can be the next alternative coolant in machining.

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“…Some studies have focused on the use of nanofluids to provide high machining efficiency, high surface quality and good cooling-lubrication in machining applications. These types of studies have produced different types of nanofluids that are strengthened with nanoparticles such as graphene oxide and alumina [10,11]. In spite of the benefits for machining, cutting fluids enhanced with nanoparticles still show some doubts due to their high manufacturing cost and lack of sufficient scientific studies for direct use in manufacturing.…”

Section: Introductionmentioning

confidence: 99%

Statistics and Computational Fluid Dynamics Analyses of the Experimentally Confirmed Thermal Behavior of Self-designed Internally Cooled Smart Cutting Tool

Öztürk

Yıldızlı

2021

Preprint

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When compared with dry machining, using traditional cutting fluids has some weaknesses such as environmental pollution, high machining costs and harmful effects on human health. Internally cooled cutting tools (ICCT) have been a promising, sustainable, health-friendly and green technologies for turning applications. However, the effects of different types of internal coolant fluids on insert tip temperature (Ttip) have not been investigated for ICCTs. Within effective cooling, machining quality of metallic materials and tool life can improve. Therefore, a conjugate heat transfer (CHT) model for a self-designed internally cooled smart cutting tool (ICSCT) was set. The CHT simulation was experimentally confirmed using pure water. After that, the effects of flow velocity (Vf), inlet temperature of the coolant fluid (Tinlet) alongside different types of glycol-based heat transfer fluids (including pure water) on Ttip were statistically evaluated by the Taguchi method and analysis of the variance (ANOVA). It was found that the most effective factor was the Tinlet at a contribution ratio level of 88.32%. Additionally, Vf and the type of heat transfer fluid were found to be significant according to statistics. Hence, since no external coolant is used, the designed smart tool can be counted as being environmentally friendly and health friendly. In conclusion, the glycol-based fluids can be a better choice for internally cooled tool designs owing to their superior features, e.g., corrosion prevention, nontoxicity and stable heat transfer capability at lower temperatures compared to pure water although pure water has better thermal properties than the glycol-based fluids.

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Quantitative analysis of cooling and lubricating effects of graphene oxide nanofluids in machining titanium alloy Ti6Al4V

Cited by 72 publications

References 48 publications

New developments in cooling techniques for machining superalloys

New developments in cooling techniques for machining superalloys

Nanofluid as an Alternative Coolant in Machining: A Review

Statistics and Computational Fluid Dynamics Analyses of the Experimentally Confirmed Thermal Behavior of Self-designed Internally Cooled Smart Cutting Tool

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