Thermodynamic and phase diagram modeling of CsF-MF4(M=U, Th) systems

Li, Xiang; Wang, Kun; Mengya, Xie; Wu, Zhu; Xie, Lei

doi:10.1007/s40242-017-6282-z

Cited by 7 publications

(3 citation statements)

References 15 publications

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“…[ 29,30 ] Many scholars have agreed with and proved that there was a graphene‐lubricated layer formed during friction to improve the lubricating conditions. [ 31–33 ] However, it is not easy to keep an unabridged graphene‐lubricated layer during friction owing to the severe wear under extreme work conditions, how long can the graphene‐lubricated layer last? The persistent period may depend on the mass content of graphene, load and speed, but these dependent behaviors are short of systematic research.…”

Section: Introductionmentioning

confidence: 99%

The role of graphene nanoplatelets in the friction reducing process of polymer

et al. 2022

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Controlling unabridged graphene-lubricated layers and extending their last times can extend the service life of polymer moving components. The friction reduction behaviors of graphene nanoplatelets (GNP) on the tribology performances of high-density polyethylene (HDPE) were studied based on friction experiments. The mechanical properties, coefficient of friction (COF), surface topography, tribo-layers wear synthetically charactered to analyses the friction reducing processes. The results showed that the GNP presented a limited friction reduction to HDPE, and it could be controlled by the mass contents of GNP, load and speed. The proper content of graphene maintained the effective GNP tribo-layers for a long time and led to a long duration of friction reduction. Decreasing load or speed weakened the wear processes, which was useful for maintaining the effective GNP tribo-layers for a long time, and reduced the COF. The knowledge will provide experimental support for improving the selflubricating performance and abrasiveness of polymers.

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Section: Introductionmentioning

confidence: 99%

The role of graphene nanoplatelets in the friction reducing process of polymer

et al. 2022

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“…The absorption at 720 cm À1 was assigned to the characteristic absorption of the graed St, and absorption bands at 1782 and 1857 cm À1 were observed, which can be assigned to the absorption of the carbonyl groups (-C]O) of the cyclic anhydride. 23,26 In addition, Fig. 4 showed a peak at 1715 cm À1 , indicating there was some graed MAH of NICE-HMA-L in carboxylic acid form, which was not conducive to improving the adhesion performance.…”

Section: The Structure Characterization Of Propylene-based Elastic Hmasmentioning

confidence: 97%

Investigation of the preparation and superior properties of novel propylene-based elastic HMAs

Chang

Liang

et al. 2016

RSC Adv.

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“…Graphene oxide (GO) is a new type of carbon material with excellent properties such as excellent mechanical properties, low friction characteristics, and good biocompatibility. [12,13] Besides, it also has a high specific surface area and abundant functional groups on the surface, [14,15] which makes it widely used as a type of reinforcing phase filler.…”

Section: Introductionmentioning

confidence: 99%

Corrosion behavior of GO‐reinforced TC4 nanocomposites manufactured by selective laser melting

Liu

et al. 2019

Materials & Corrosion

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To improve the corrosion resistance of Ti–6Al–4V (TC4) matrix, the influence on the corrosion behavior, microhardness, and microstructure of graphene oxide (GO)‐reinforced TC4 nanocomposites manufactured by selective laser melting was systematically investigated in this study. Microhardness tester, profilometer, X‐ray diffractometer, scanning electron microscopy, and electrochemical workstation were used to characterize the association between microhardness, pore microstructures, hard phases, and corrosion resistance of GO/TC4 nanocomposites. It can be observed that the incorporation of GO promotes the in situ formation of hard phases, such as TiC, TiO2, Al2O3, and so forth, and it also changes the microstructure of the matrix as well as increases its porosity. Nevertheless, GO/TC4 nanocomposites perform the best corrosion resistance when the mixing content of GO is 0.5 wt%, and its microhardness is greatly improved with the addition of GO. All experimental results suggest the efficacy of added GO.

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Thermodynamic and phase diagram modeling of CsF-MF4(M=U, Th) systems

Cited by 7 publications

References 15 publications

The role of graphene nanoplatelets in the friction reducing process of polymer

The role of graphene nanoplatelets in the friction reducing process of polymer

Investigation of the preparation and superior properties of novel propylene-based elastic HMAs

Corrosion behavior of GO‐reinforced TC4 nanocomposites manufactured by selective laser melting

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