This article highlights the importance of the addition of Mollusc shell (MS) particles, as bio-filler, on the tribological behavior of high-density polyethylene (HDPE) matrix. The elaborated biocomposites are intended to be used as an orthopedic replacement biomaterial. Different mass content of MS (0, 5, 10, 15 and 20 wt. %) have been added to the HDPE matrix. FTIR analysis, crystallinity rate and Rockwell hardness of different bio-composites were performed. A reciprocating pin-on-disc tribometer was used to fulfil dry wear tests. FTIR analysis showed that the presence of MS particles improved the crystallinity of the HDPE phase. Adding to that, it was found that MS improved the hardness, friction coefficient and wear resistance of the HDPE polymer. In fact, by adding 5 wt. % of MS to the HDPE, good tribological properties were achieved. Scanning Electron Microscopy (SEM) was performed to investigate the wear morphology of biocomposites under dry condition. SEM images showed that the morphology of the worn surfaces had been improved by the addition of MS to the polymer. Finally, a wear scenario was proposed.
CampanaVMilanoGPaganoE, et al.
Bone substitutes in orthopaedic surgery: from basic science to clinical practice. J Mater Sci Mater Med2014;
25: 2445–2461.
2.
TM Mohammed. Nanocomposites in total hip joint replacements. In: Inamuddin, Asiri A, Mohammad A (eds) Applications of nanocomposite materials in orthopedics. Amsterdam: Elsevier Inc., 2019, pp.221–252.
3.
ZaiWWongMHManHC.Improving the wear and corrosion resistance of CoCrMo-UHMWPE articulating surfaces in the presence of an electrolyte. Appl Surf Sci2019;
464: 404–411.
4.
ChenJYangWPing YuG, et al.
Continuous extrusion and tensile strength of self-reinforced HDPE/UHMWPE sheet. J Mater Process Technol2008;
202: 165–169.
5.
Zhil’tsovaTVOliveiraMSAFerreiraJAF.Relative influence of injection molding processing conditions on HDPE acetabular cups dimensional stability. J Mater Process Technol2009;
209: 3894–3904.
6.
GeSWangSHuangX.Increasing the wear resistance of UHMWPE acetabular cups by adding natural biocompatible particles. Wear2009;
267: 770–776.
7.
SalemABensalahWMezliniS.Tribological investigation of HDPE-cuttlebone and HDPE-red coral composites. J Bionic Eng2019;
16: 1068–1079.
8.
SaeediMJiryaieS. Morphological and thermal properties of HDPE/CaCO3 nanocomposites: effect of content of nano and MFI. In: International conference on nanotechnology and biosensors, vol. 25, 2011, pp.34–38. Singapore: IACSIT Press.
9.
ElleithyRHAliIAliMA, et al.
High density polyethylene/micro calcium carbonate composites: a study of the morphological, thermal, and viscoelastic properties. J Appl Polym Sci2010;
117: 2413–2421.
10.
FrodelJLLeeS.The use of high-density polyethylene implants in facial deformities. Arch Otolaryngol Head Neck Surg1998;
124: 1219–1223.
11.
RanjanRKumarAKumarS, et al.
Role of high density porous polyethylene (H.D.P.E) Implants in correction of maxillofacial defects and deformity: a review. Int J Prev Clin Dent Res2015;
2: 71–75.
12.
WroblewskiBM.Wear of high-density polyethylene on bone and cartilage. J Bone Jt Surg1979;
61-B: 498–500.
13.
WangXLMingHYinH.Fabrication and properties of HDPE/CF/CaCO3/PE-g-MAH quaternary composites. Mater Sci Eng2015;
87: 1–7.
14.
RaiADatarkarAAroraA, et al.
Utility of high density porous polyethylene implants in maxillofacial surgery. J Maxillofac Oral Surg 2013;
13: 42–46.
15.
PurnomoPHSetyariniD. and Sulistyaningsih Zeolite-based biomaterials for biomedical application: a review. In: Human-dedicated sustainable product and process design: materials, resources, and energy, vol. 1977. Indonesia: AIP Publishing, 2018.
16.
FarukKSDeelipKMChavanPP, et al.
Analysis of ultra-high molecular weight polyethylene reinforced with zeolite composite for human implant. REST J Emerg Trends Model Manuf2016;
2: 26–29.
17.
MahshuriYAmalinaMA.Hardness and compressive properties of calcium carbonate derived from clam shell filled unsaturated polyester composites hardness and compressive properties of calcium carbonate derived from clam shell filled unsaturated polyester composites. Mater Res Innov2016;
18: 291–294.
18.
MarinFLuquetG.Molluscan biomineralization: the proteinaceous shell constituents of Pinna nobilis L. Mater Sci Eng C2005;
25: 105–111.
19.
CoringaRde SousaEMBotelhoJN, et al.
Bone substitute made from a Brazilian oyster shell functions as a fast stimulator for bone-forming cells in an animal model. PLoS One2018;
13: e0198697.
20.
Chris-OkaforPUOkonkwoCCOhaekeMS.Reinforcement of high density polyethylene with snail shell powder. Am J Polym Sci2018;
8: 17–21.
21.
GuezmilMBensalahWMezliniS.Tribological behavior of UHMWPE against TiAl6V4 and CoCr28Mo alloys under dry and lubricated conditions. J Mech Behav Biomed Mater2016;
63: 375–385.
22.
GeringerJForestBCombradeP.Fretting corrosion of materials used as orthopedic implants. Wear2005;
259: 943–951.
23.
WidmerMRHeubergerMVörösJ, et al.
Influence of polymer surface chemistry on frictional properties under protein-lubrication conditions: Implications for hip-implant design. Tribol Lett2001;
10: 111–116.
24.
BorrutoA.A new material for hip prosthesis without considerable debris release. Med Eng Phys2010;
32: 908–913.
25.
HuangJQuSWangJ, et al.
Reciprocating sliding wear behavior of alendronate sodium-loaded UHMWPE under different tribological conditions. Mater Sci Eng C2013;
33: 3001–3009.
26.
ZerbiGGallinoGFantiND, et al.
Structural depth profiling in polyethylene films by multiple internal reflection infra-red spectroscopy. Polymer (Guildf)1989;
30: 2324–2327.
27.
ASTM. D785-03-standard test method for rockwell hardness of plastics and electrical insulating. In: Annual book of ASTM standards, ASTM International, 2008, pp.1–6.
28.
Shafiu KambaAIsmailMTengku IbrahimTA, et al.
Synthesis and characterisation of calcium carbonate aragonite nanocrystals from cockle shell powder (Anadara granosa). J Nanomater2013; 2013: 1–9.
29.
FicaiMAndronescuEVoicuG, et al.
Mollusc shell/collagen composite as potential biomaterial for bone substitutes. Rom J Mater2010;
40: 359–364.
30.
ZakariaFZAzizFAThevarajahN. Spectroscopic studies of cow femurs and porites species coral from Sabah. J Nucl Relat Technol2007; 4: 181–184.
31.
HamzahM, et al.
Surface chemistry changes and microstructure evaluation of low density nanocluster polyethylene under natural weathering: a spectroscopic investigation. J Phys Conf Ser2018;
984: 1–14.
32.
MeloPMAMacêdoOBBarbosaGP, et al.
High-density polyethylene/mollusk shell-waste composites: effects of particle size and coupling agent on morphology, mechanical and thermal properties. Integr Med Res2019;
8: 1915–1925.
33.
Vijaya RamnathBJeykrishnanJRamakrishnanG, et al.
Sea shells and natural fibres composites: a review. Mater Today Proc2018;
5: 1846–1851.
CooperJRDowsonDFisherJ.Macroscopic and microscopic wear mechanisms in ultra-high molecular weight polyethylene. Wear1993;
162–164: 378–384.
36.
OladeleIOOlajideJLAmujedeM.Wear resistance and mechanical behaviour of epoxy/mollusk shell biocomposites developed for structural applications. Tribol Ind2016;
38: 347–360.
