Effect of mussel shell reinforcement on mechanical and tribological behavior of polyphenylene sulfide composites

Şahin, Alp Eren; Çetin, Beysim; Sınmazçelik, Tamer

doi:10.1177/0892705720930787

Cited by 9 publications

(15 citation statements)

References 50 publications

(93 reference statements)

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“…Insufficient matrixreinforcement interaction causes agglomeration of the particles and the formation of large interfaces. 8,20 As a result, interparticle stress transfer cannot occur successfully and causes a decrease in material strength. 59 Within the scope of this study, due to the surface modification process, the interface interaction between the polymer and reinforcement increased, thus increasing the tensile strength.…”

Section: Tensile Test Resultsmentioning

confidence: 99%

Investigation of the effect of surface modification types on the tribological performance of cow bone powder reinforced polymer materials

Kabave Kilincarslan,

Cetin,

Kanbur

et al. 2023

Polymer Composites

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This study investigated the production, characterization, mechanical and tribological performance of surface‐modified cow bone powder‐reinforced composites. The primary goal was to increase the tribological and mechanical performance of sustainable and cleanly produced composite materials. It was determined that the surface‐modified bone powder reinforcement increased the mechanical, thermal, and wear resistance of the polymer. The best surface modification method was determined as silanization. It reduced the friction coefficient and weight loss by 16.60% and 40.0%, respectively, according to the main factor analysis. In addition, it increased the glass transition temperature by 45.54%, crystallization by 2.93%, hardness by 2.70%, and tensile strength by 9.26% compared to the unmodified bone powder reinforcement.Highlights Surface‐modified cow bone powder‐reinforced composites were produced and characterized. The tribological and mechanical performance of the composites was investigated comprehensively. Surface‐modified composites improved the wear resistance. Surface‐modified composites improved the thermal resistance and mechanical properties. The best surface modification method was found to be silanization.

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Section: Tensile Test Resultsmentioning

confidence: 99%

Investigation of the effect of surface modification types on the tribological performance of cow bone powder reinforced polymer materials

Kabave Kilincarslan,

Cetin,

Kanbur

et al. 2023

Polymer Composites

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“…Due to the high particle matrix interface, the loss of mass gradually increases with the particle being displaced during scratching. 35,61…”

Section: Scratch Test Resultsmentioning

confidence: 99%

“…This equation represents whether the scratch mechanism occurred in the form of plastic deformation or ploughing. Figure 3 shows the scratch track diagram [35][36][37]…”

Section: Methodsmentioning

confidence: 99%

“…42,43 This means the wear damage occurs not only from material loss but also by permanent deformation on the sample surface. 35 The "plastic deformation rate" was determined by the formula (4). As it is seen in Figure 4, a part of the wear trace is formed as the material loss from the surface of the target sample, while the other part is formed by plastic deformation in the form of pilling up towards the edges of the material.…”

Section: Methodsmentioning

confidence: 99%

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Investigation of mechanical and tribological behaviour of expanded perlite particle reinforced polyphenylene sulphide

Şahin

Çetin

Sınmazçelik

2021

Proceedings of the Institution of Mechanical Engineers, Part L:

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In this study, polyphenylene sulphide was used as a matrix material due to its superior engineering properties. Expanded perlite is formed substantially from silica oxides, and it is a volcanic based and porous structure material. Its low price and low density make it very usable as a filler material. For this reason, expanded perlite reinforced polyphenylene sulphide matrix composites were prepared at various weight ratios (0, 1, 3, 5, and 10 wt%). Mechanical and tribological characterizations were done with tensile tests, hardness measurements, solid particle erosion, ball on disc, and scratch tests. According to the tensile test results, a synergistic effect was observed in mechanical properties by using perlite as a reinforcing agent. As expected, perlite reinforcement resulted in an increase in the modulus of 54% in composites. As well as tensile strength of the composite increased by approximately 13%. Furthermore, the perlite particle reinforcement improved the adhesion resistance by 73% and the scratch resistance by 30%. On the other hand, especially at low impact angles, perlite particle reinforcement decreased the erosive wear resistance of the pure polyphenylene sulphide polymer by 50%. Furthermore, expanded perlite reinforcement decreased the plastic deformation ability of polyphenylene sulphide. In consequence of this study, it has been found that expanded perlite particles can be used as an alternative filler instead of conventional reinforcing particles.

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“…The polyphenylene sulfide matrix was used to produce particulate mussel shell waste-reinforced composites (0–10 wt %) [ 34 ]. The authors showed that all composites show better adhesive wear resistance compared to neat matrix, with the best results obtained for the composites filled with the lowest weight percentage of waste, i.e., 1 wt %.…”

Section: Agricultural Waste Materialsmentioning

confidence: 99%

Tribological Performance of Composites Reinforced with the Agricultural, Industrial and Post-Consumer Wastes: A Review

Sydow

Wojciechowski

et al. 2021

Materials

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Waste management is still one of the leading global challenges in the 21st century. From the European Union’s point of view, the Waste Framework Directive obliges businesses and households to recycle at least 55% of their municipal waste by 2025 and to reach 65% in 2035. Hence there is a great need to seek new solutions for the reuse of various waste materials. One of the most widely used wastes is their utilization as fillers or reinforcements in the metal- or polymer-based composites. The reuse of wastes for the production of tribological materials gives not only environmental benefits related to the transformation of waste into raw materials but also may improve the mechanical and tribological properties of such materials. Moreover, the use of waste reduces the production costs resulting from the lower price of filler materials and longer service life of developed products. The purpose of the current review is, therefore, aimed at the evaluation of the reuse of agricultural, industrial and postconsumer wastes as reinforcements in the composites used for tribological applications. The tribological performance (wear rate, coefficient of friction) of both monolithic and hybrid composites reinforced with waste materials was a particular subject of interest in this review.

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Effect of mussel shell reinforcement on mechanical and tribological behavior of polyphenylene sulfide composites

Cited by 9 publications

References 50 publications

Investigation of the effect of surface modification types on the tribological performance of cow bone powder reinforced polymer materials

Investigation of the effect of surface modification types on the tribological performance of cow bone powder reinforced polymer materials

Investigation of mechanical and tribological behaviour of expanded perlite particle reinforced polyphenylene sulphide

Tribological Performance of Composites Reinforced with the Agricultural, Industrial and Post-Consumer Wastes: A Review

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