Open access peer-reviewed chapter

Ceramics Coated Metallic Materials: Methods, Properties and Applications

Written By

Dongmian Zang and Xiaowei Xun

Submitted: 26 June 2020 Reviewed: 31 August 2020 Published: 28 October 2020

DOI: 10.5772/intechopen.93814

From the Edited Volume

Advanced Ceramic Materials

Edited by Mohsen Mhadhbi

Chapter metrics overview

1,010 Chapter Downloads

View Full Metrics


Surface coating can allow the bulk materials to remain unchanged, while the surface functionality is engineered to afford a more wanted characteristic. Ceramic coatings are considered as ideal coatings on metal which can significantly improve the surface properties of metal materials including anti-fouling, self-cleaning, corrosion resistance, wear resistance, oil/water separation and biocompatibility. Furthermore, various techniques have been utilized to fabricate a range of different ceramic coatings with more desirable properties on metal materials, which make the materials widely used in service environment. This chapter focus will be on the types, fabrication methods, surface properties and applications of ceramics coated metal materials.


  • ceramic coating
  • metallic materials
  • surface physicochemistry

1. Introduction

Metallic materials such as Fe, Cu, Ti, Al, Mg and their alloys have excellent mechanical and physical properties showing tremendous application in architecture, marine, aerospace and biomedicine fields, etc. [1, 2, 3, 4, 5, 6]. To a certain extents, the surface properties of the metallic materials are playing irreplaceable roles in operating environments. Surface functionalization can improve corrosion resistance, anti-fouling, self-cleaning, wear resistance, oil/water separation and biocompatibility of metallic materials [7, 8, 9]. In this context, surface coating is an efficient and resource saving method to realize the surface functionalization of metallic materials. In addition, ceramic coating is environmentally friendly, and has the advantages of low cost, simple preparation, corrosion and wear resistance, thermal stability, and mechanical durability [10]. As such, constructing a ceramic coating on metallic material surface is a rational strategy to realize the surface multi-function [11, 12].

In this chapter, we briefly introduce the types and the properties of ceramic coatings. Then, we summarize the strategies for preparing ceramic coatings on metallic materials and applications of ceramics coated metallic materials.


2. Ceramics coated metallic materials

Ceramics materials can be divided into oxide ceramics and non-oxide ceramics according to their compositions. Many oxide ceramics are metal oxides forming oxide films on their surfaces, which are used as coating materials for the protection and functional layer of metallic materials (for example, aluminum, stainless steel or titanium alloys). Also, diverse non-oxide ceramic materials are used to functionalize the surfaces of metal materials.

2.1 Ceramic coatings types

Ti and its alloy have excellent corrosion resistant to alkali, chloride and some strong acids because of the compact oxide film (Titania, TiO2) formed spontaneously on surfaces. Therefore, TiO2 coating is considered to be an ideal corrosion resistant layer to protect the metal substrate from corrosion. Shen et al. fabricated a uniform TiO2 nanoparticle coating on 316 L stainless steel by using sol-gel technology, the electrochemical results showed that the TiO2 coating on 316 L stainless steel effectively prevent the substrate from corrosion in chloride containing solution at the room temperature [13]. Furthermore, studies exhibited that the TiO2 coating with nanostructure had excellent photoactive antibacterial property and hemocompatibility [14, 15].

Alumina (Al2O3) exhibits exceptional mechanical property and thermostability possessing a broad range of applications in optics, electronic, and biomedical fields. In addition, the corrosion resistance of Al and its alloys is attributed to inherent Al2O3 coating, which can effectively improve the corrosion resistance of metallic substrate. Gao et al. prepared the Al2O3 ceramic coating on AZ31PH Mg alloy by laser remelting plasma-sprayed coating, it was found that the Al2O3 ceramic coating exhibited high hardness as well as wear and corrosion resistance properties [16].

Similarly, silica (SiO2) is also highly desirable coating materials on metallic materials as wear and corrosion resistant coating. The corrosion-resistant SiO2 ceramic coating on alloys was prepared by metal organic chemical vapor deposition (MOCVD) [17]. In addition, Sadreddini et al. revealed that the corrosion rate and porosity of coating decreased with increasing the quantity of the SiO2 nanoparticles in the bath [18, 19].

As the most stable oxide of manganese, manganese dioxide (MnO2) has abundant reserves in the earth, and has the advantages of low cost, environmental friendliness and simple preparation, which is widely used in energy, catalysis and sewage treatment. MnO2 coating with different crystal structure and surface morphology can be prepared by different methods meeting wanted requirements [20, 21]. Inspired by lotus flower, we used an in situ immersion method to fabricate MnO2 coating on AZ31B Mg alloy, and post-modification with stearic acid to obtain the superhydrophobic MnO2 coating. The prepared superhydrophobic Mg alloy surface showed excellent self-cleaning property both in air and under oil (shown in Figure 1), as well as mechanical durability and chemical stability [22].

Figure 1.

Self-cleaning tests on AZ31B Mg alloy. (a, b) time-sequence images showing pristine AZ31B Mg alloy and MnO2 coated AZ31B Mg alloy surface without self-cleaning properties, time-sequence images showing self-cleaning properties on superhydrophobic surface (c) in air and (d) in oil (isooctane). Scale bar, 1 cm. Reproduced with permission [22]. Copyright 2011, Elsevier.

As to non-oxide ceramics, Hydroxyapatite (HA) is the main inorganic component of human and animal bones. It is a kind of bioactive ceramic material, which is widely used in bone tissue engineering. The HA ceramic coating was widely used in surface functionalization of metallic biomaterials. Hiromoto et al. prepared the HA coatings on AZ31 magnesium alloy, results showed that the HA coatings can remarkably reduce the Mg ion-release and corrosion current density [23]. In addition, it was reported that HA coating on 316 L stainless steel improved the corrosion behavior and biocompatibility of metallic implant and bone Osseointegration simultaneously [24]. Also, Surmeneva et al. prepared the HA coatings with different Ti contents on a Ti-6Al-4 V alloy, which was considered to be a possible candidate for biomedical applications [25].

Additionally, non-oxide ceramics materials such as silicon carbide (SiC), monolithic silicon nitride (Si3N4), and aluminum nitride (AlN) exhibit superior high-temperature strength and durability indicating their potential in industrial application [26, 27]. Furthermore, Liu et al. used non-oxide ceramics coating (bioactive silica-based glasses) on Ti alloys to promote the formation of HA layers in vivo [28].

In this context, oxide ceramic coatings and non-oxide ceramic coatings are playing important roles in the field of surface functionalization of metallic materials.

2.2 Properties of ceramic coating

Different metallic materials, in a sense, have different mechanical properties. Hardness and wear resistance are required to expand application prospect when metallic materials are used for industrial engineering. Numerous studies have shown that rare earth silicate barrier coatings can be potentially used for the application in high temperature aero-engines [29]. Bio-inspired by lotus leaf, Wu et al. synthesized the wear-resistant MoS2 coated BN–TiN composite coating [30]. In addition, Xu et al. indicated that electrochemical co-deposition of nano-SiO2 and nano-CeO2 particles with Ni–W–P composite coatings on 15# steel significantly improved the microhardness and abrasion resistance properties of the substrate [31]. Not only that, nano-structured Ni-Al2O3 composite coatings on Al plate exhibited the ultrahigh hardness (657 ± 28 Hv) and wear resistance [32]. Impressively, the TiO2/Al2O3 composite coatings were prepared on Ti-6Al-4 V Alloy by micro arc oxidation, and the microhardness up to 11,000 MPa. The wear resistance was increased by 9.5 times than the as-received sample [33].

Metal corrosion is commonly found, hard to prevent, does harm to our environment, and costs several percent of the gross domestic production (GDP) of an industrialized country. As such, establishing corrosion control systems for metallic materials is very important for the sake of environment and economy harmony. The ceramic coating is widely used to protect metallic materials because of its good corrosion resistance. Like other corrosion-resistant coatings, the ceramic coating provides a barrier on the surface of metallic materials effectively isolating the corrosion solution from the substrate [34]. Moreover, the ceramic coating with micro-nano hierarchical structure can be prepared to obtain a superhydrophobic surface after hydrophobic treatment. In this regard, superhydrophobic ceramic coating has favorable corrosion resistance due to its excellent water-repellent property showing great potential application in corrosion protection of metallic materials [35].

To improve the corrosion resistance of mild steel, Tiwari et al. fabricated the conversion coating and sol–gel Al2O3 coating on mild steel [36]. The electrochemical results indicated that this coating reduced the corrosion current density of the mild steel by 5 orders of magnitude and increased the corrosion potential up to more than 1.0 VSCE. Furthermore, Wang et al. used silane coupling agent bonding to the hydrotalcite/hydromagnesite conversion coating on Mg alloy, then the superhydrophobic ceramic coating was obtained, as such, the superhydrophobic ceramic coating had excellent corrosion resistance owing to its anti-water property [37]. In this context, superhydrophobic ceramic coating with hierarchical structure can trapped more air when immersed in the corrosive liquid greatly reducing the corrosive media attacked to the substrate, which provide a new idea for the application of ceramic coating in metallic materials protection.

Owing to their good thermal barrier properties, ceramic coatings are widely used to provide thermal barrier for heat transfer on the surface of metallic material and to improve the thermal stability of the substrate. Ghosh et al. evaluated the thermal properties of a thermal barrier coating (TBC) system on nimonic alloy (BaO–MgO–SiO2 based glass-ceramic bond coating, 8% (mass fraction) yttria stabilized zirconia (8YSZ) top coating), the results showed that thermal barrier ceramic coating has extremely low thermal diffusivity and thermal conductivity than the bare substrate [38].

Ceramic materials can be divided into bioinert materials and bioactive materials according to their biological properties. Bioinert materials do not induce any visible tissue reactions; the majority of ceramics belong to this group. Al2O3 and ZrO2 as bioinert materials have inherently low levels of reactivity, which have great potential for medical application owing to nontoxic, non-allergenic, and non-carcinogenic [39].

Some ceramics regarded as bioactive materials favor organ/tissue repairs and the integration of associated devices, which are essentially used in orthopedics, like favor bone repair and the integration of implants in bone tissues. As the most representative bioactive ceramic material, HA is widely used in bone tissue engineering for it is the main component of bones and teeth of human and animal. To improve the biodegradation performance of AZ91D Mg alloy, Song et al. prepared the bioactive HA coating electrodeposited on the Mg alloy, which can obviously reduce the biodegradation rate of AZ91D Mg alloy in stimulated body fluid (SBF) [40]. More importantly, HA-coated implants have been used in clinical research [41].

2.3 Fabrication of ceramic coating on metallic materials

The preparation and application of ceramic coatings have been studied for a long time. In order to adapt to different substrates, various technologies have been developed. These technologies of ceramics coated metallic materials enable to expand the application range in many fields.

Sol-gel method can easily prepare the ceramic coatings on metallic materials. Villatte et al. prepared TiO2 antibacterial coating on fixation pins by using sol-gel method. This fabrication involved two steps: to create TiO2 coating via a sol-gel process, and then to anneal at 500°C for 1 h [15]. In order to improve oxidation resistance, Małecka et al. used the sol-gel method to obtain a SiO2 coating on Ti-46Al-7Nb-0.7Cr-0.1Si-0.2Ni alloy [42]. Moreover, sol-gel nanostructured Al2O3 coating can be fabricated on mild steel by hydrolysis and polycondensation of aluminum isopropoxide and catalyzed by HNO3 [36].

Micro-arc oxidation (MAO) has been used as a critical method for many years to prepare much thicker and harder ceramic coatings on metallic materials. Shen et al. used the MAO technology to fabricate the TiO2/Al2O3 composite coatings on Ti-6Al-4 V alloy in the Na2SiO3-(NaPO3)6-NaAlO2 solution. The growth process revealed that O2− reacted rapidly with Al3+ and Ti4+ (from substrate) to form the Al2O3 and Al2TiO5 simultaneously, and then Al2TiO5 was immediately decomposed into rutile TiO2 and α-Al2O3 [33]. In addition, the porous Cu-TiO2 coatings can be fabricated on titanium through MAO process under the constant current density of 20 A/dm2 for 5 min, and the high stability TiO2 coating formed during MAO process improved the corrosion resistance of titanium [43].

Atomic layer deposition (ALD) is a surface modification method through depositing inorganic species on the surface of different substrates, and the materials with arbitrary shape could be modified through vapor phase ALD. After multiple cycles of deposition, a conformal and uniform ceramic coating with good heat resistance and stiffness would be formed [44]. Huang et al. deposited the dense TiO2 thin coatings on Co-Cr alloy with excellent antifungal activity by using ALD process [45]. Impressively, in order to prevent copper from water corrosion, Abdulagatov et al. developed an ultrathin barrier film on Cu. In this context, the barrier film was prepared by utilizing Al2O3 ALD and then TiO2 ALD to protect the substrate [46].

Electrochemical method is usually used to fabricate oxide ceramics coated metallic materials. Notably, the electrochemical method is independent on the shape and the size of substrate. As such, Song et al. used electrodeposit technology to obtain the HA coatings on AZ91D Mg alloy [40], and Charlot et al. employed anodic electrophoretic deposition (EPD) to fabricate the SiO2 submicron coatings, and found that the thickness of the film was related to the applied electric field [47]. In addition, the anodizing method is another well-established electrochemistry to form the ceramic coatings. Vengatesh et al. reported an anodic aluminum oxide surface by using anodizing process to prepare the superhydrophobic Al surface [48]. The prepared aluminum anodizing film not only had strong surface adhesion to the substrate, but also enabled fatty acids graft on the substrate ensuring the stability of superhydrophobic surface.

As a surface-deposited technology, plasma treatment is a simple and effective way to obtain ceramics coated metallic materials showing fine adhesion strength of coating-substrate. To improve corrosion resistance and bioactivity, the HA coating was prepared on AZ91HP Mg alloy by using plasma spraying method [49]. In addition, Sun et al. fabricated a TiO2 coating on titanium substrate by using plasma electrolytic oxidation method in a sodium silicate (Na2SiO3) aqueous solution. In this regard, the TiO2 coating was obtained on the titanium substrate with the best quality of density and adhesion by adjusting the duty ratio, frequency, and positive/negative pulse proportion on the microstructure and phase compositions [50].

Magnetron sputtering is also an efficient method to prepare ceramic coatings on the surface of metallic materials. Krishna et al. developed a novel process to improve the tribological and corrosion properties of austenitic stainless steels, a titanium coating deposited onto AISI 316 L stainless steel by magnetron sputtering, and then to partially convert the titanium coatings into titanium oxide by thermal oxidation. The resultant coating showed strong adhesion, good corrosion resistance, together with excellent surface hardness and tribological properties [51].

Solution immersion is a conventional method for fabrication of ceramic coatings on the surface of metallic materials. In this context, it is inexpensive and easy to carry out [52, 53]. In order to obtain a HA coating on Mg and its alloy, Hiromoto et al. immersed AZ31 Mg alloy and pure Mg in a 250 mmol/L C10H12N2O8Na2Ca aqueous solution of pH 8.9 [23]. Recently, a superhydrophobic MnO2 coating was fabricated on AZ31B Mg alloy using two-step in situ immersion method, and post-modification with stearic acid. The superhydrophobic surface showed excellent corrosion resistant and anti-bioadhesion [54].

Laser-cladding is considered to be one of the most effective methods to fabricate a ceramic coating on metallic materials because of the powerful energy of laser to accelerate metal oxidation [55]. Boinovich et al. fabricated a superhydrophobic surface on Al alloys by nanosecond laser treatment [56]. After laser etching, a thick oxide film with high roughness was formed after several stages of melting and solidifying. Similarly, through laser cladding, Al2O3-TiB2-TiC ceramic coatings can be fabricated on carbon steel surface providing high microhardness and good wear resistance due to the results that the cladding thin film was uniformly and densely organized on the substrate [57].

Chemical vapor deposition can produce the ceramic coatings with controlled surface topography. Hofman et al. deposited the SiO2 coatings on alloys by metal organic chemical vapor deposition (MOCVD) in sulphidizing high-temperature environments. The results indicated that the presence of silanol groups in SiO2 coatings reduced the viscosity of the coating and enhanced the stress relaxation, thereby improving the coating performance [17].

Dip-coating is a time-saving and low-cost method for preparation of ceramic coatings [58, 59]. In 2017, Yu et al. produced a chemically robust and corrosion resistant Na2SiO3/Al2O3 composite coating on the surface of the 304 stainless steel, on which Na2SiO3 was incorporated into the nanopore of porous alumina layer by dip-coating heat treatment [60].

The fabrication methods of ceramic coated metallic materials are summarized in Table 1.

MethodCeramic coatingSubstratePropertyRef.
Sol-gelTiO2Stainless steelAntibacterial and sufficient
Mechanical strength
SiO2Titanium alloyOxidation resistance[42]
Al2O3Mild steelCorrosion resistance[36]
Micro-arc oxidationTiO2/Al2O3Ti-6Al-4 V alloyWear resistance[33]
TiO2TitaniumCorrosion resistance[43]
Atomic layer depositionTiO2Co-CrAntifungal[45]
Al2O3/TiO2CopperCorrosion resistance[46]
ElectrochemicalHAMg alloyBiodegradation performance[40]
Al2O3AluminumCorrosion resistance[48]
Plasma treatmentHAMg alloyCorrosion resistance and bioactivity[49]
TiO2TitaniumCorrosion resistance[50]
Magnetron sputteringHATitaniumCorrosion resistance[25]
TiO2Stainless steelTribological properties and corrosion resistance[51]
Solution immersionHAMg alloyCorrosion resistance[23]
MnO2Mg alloySelf-cleaning[54]
Laser-claddingAl2O3AluminumCorrosion resistance[56]
Al2O3/TiB2/TiCCarbon steelMicrohardness and wear resistance[57]
Metal organic chemical vapor depositionSiO2Alloys/[17]
Dip-coatingNa2SiO3/Al2O3Stainless steelHigh temperature oxidation inhibition and corrosion resistance[60]

Table 1.

Summary of fabrication methods of ceramic coated metallic materials.


3. The applications of ceramics coated metallic materials

Up to now, the ceramics coated metallic materials have great potential in a wide variety of applications due to its unusual properties, such as good mechanical properties, corrosion resistance, thermal stability, and biological properties. It is worth noted that hydrophobic treatment of ceramic coatings on metallic materials ensuring superhydrophobic surfaces with special surface physicochemistry has recently received much attention in many fields.

It is well known that metallic material is irreplaceable in industrial application. The ceramic coatings bestow numerous unusual properties to metallic materials. Early in 1987, Ceramic coating as thermal barrier coating was tested on turbine blades in a research engine. Today, thermal barrier ceramic coatings are used in a low risk location within the turbine section of certain gas turbine engines [11]. In addition, Qin et al. reported that multiphase ceramic coatings significantly improved the hardness and wear resistance properties of 5052 Al alloy, which is conducive to industrial application [61]. In 2018, an alumina-titania ceramic coating was fabricated on carbon steel for corrosion protection [62].

Recently, superhydrophobic surface has been extensively developed due to its unique property including corrosion protection, self-cleaning, oil water separation, anti-fouling, anti-icing, and drag reduction [63]. Superhydrophobic ceramic coating was obtained by hydrophobic treatment of ceramic coating with hierarchical rough structure, which greatly expanded the application range of metal materials [64, 65]. In 2020, Emarati et al. fabricated a superhydrophobic nano-TiO2/TMPSi ceramic composite coating on 316 L steel by using a one-step electrophoretic deposition method, the results indicated that the superhydrophobic ceramic nanocomposite coating had excellent corrosion resistance [66]. Also, the water shear stress and drag can be reduced on superhydrophobic ceramic coated metallic materials surfaces resulting from the air pockets present between the liquid and solid substrate. In this context, the rolling-off droplets can remove contamination particles displaying self-cleaning feature [22]. Furthermore, a superhydrophobic ceramic coating is also reported as an emerging material exhibiting their promising diverse applications for anti-fogging, anti-fouling, and oil water separation [67, 68, 69]. Figure 2 shows the oil/water separation of 1H, 1H, 2H, 2H-perfluorodecyltriethoxysilane-modified CuO-grown copper foam (PCCF).

Figure 2.

Separation apparatus with an 18:25 v:v isooctane/water mixture above PCCF. Inset, PCCF was fixed in Cu flange and then sandwiched between two glass tubes (a). Isooctane passed through PCCF whereas water was retained (b). Water is dyed blue. Scale bar, 3 cm. Reproduced with permission [69]. Copyright 2013, Royal Society of Chemistry.

In addition, ceramic coatings have numerous applications in the field of biomedical engineering, mainly because of their biological properties. The bioinert properties of ceramic coatings help them with biocompatibility, and good hardness and wear-resistance properties make them suitable for substitution of hard tissues (bones and teeth). On the contrary, bioactive ceramic coatings such as HA coating have been clinically used onto the metallic implant surfaces combining the mechanical strength of metals and their alloys with the excellent biological properties of ceramics for the enhancement of new bone osteogenesis [70, 71].

Importantly, researching work shows that superhydrophobic surfaces can dramatically reduce the contact between fouling organisms and substrate surfaces exhibiting excellent anti-fouling and hemocompatibility properties [72, 73]. Hu et al. designed a superhydrophobic SiO2 biodegradable coating with exceptional anti-bioadhesion through one-step co-electrospraying poly(L-lactide) (PLLA) modified with silica nanoparticles [74]. It was revealed that the superhemophobic TiO2 surface with a robust Cassie–Baxter state displayed more hemocompatible compared to hemophobic or hemophilic TiO2 surface [75]. The comparison of properties of unmodified ceramic coating and superhydrophobic ceramic coating on metallic materials is shown in Figure 3.

Figure 3.

The comparison of properties of unmodified ceramic coating and superhydrophobic ceramic coating on metallic materials.


4. Conclusion

In this chapter, we introduce and discuss various techniques utilized to fabricate a range of different ceramic coatings on metal materials with desirable properties such as good mechanical property, corrosion resistance, thermal stability, and biological property. It is not surprising that superhydrophobic ceramic coatings on metallic materials can make the materials be attractive for applications in anti-fouling, self-cleaning, corrosion protection, wear resistance, oil/water separation and biotechnology.



This work was supported by the Natural Science Foundation of Jiangxi Province (20192BAB203008).


Conflict of interest

The authors declare no conflict of interest.


  1. 1. Gurrappa I. Characterization of titanium alloy Ti-6Al-4V for chemical, marine and industrial applications. Materials Characterization. 2003; 51:131-139. DOI: 10.1016/j.matchar.2003.10.006
  2. 2. Hosseinalipour S M, Ershadlangroudi A, Hayati A N, et al. Characterization of sol–gel coated 316L stainless steel for biomedical applications. Progress in Organic Coatings. 2010;67:371-374. DOI: 10.1016/j.porgcoat.2010.01.002
  3. 3. Collins W, Sherman R J, Leon R T, et al. Fracture toughness characterization of high-performance steel for bridge girder applications. Journal of Materials in Civil Engineering. 2019;31:04019027. DOI: 10.1061/(asce)mt.1943-5533.0002636
  4. 4. Singh J, Chauhan A. Characterization of hybrid aluminum matrix composites for advanced applications–A review. Journal of materials research technology. 2016;5:159-169. DOI: 10.1016/j.jmrt.2015.05.004
  5. 5. Gupta M, Tay A A O, Vaidyanathan K, et al. An investigation of the synthesis and characterization of copper samples for use in interconnect applications. Materials Science and Engineering: A. 2007;454-455:690-694. DOI: 10.1016/j.msea.2006.11.099
  6. 6. Cipriano A F, Lin J, Miller C, et al. Anodization of magnesium for biomedical applications–Processing, characterization, degradation and cytocompatibility. Acta Biomaterialia. 2017;62:397-417. DOI: 10.1016/j.actbio.2017.08.017
  7. 7. Fu Y. Review on the corrosion behavior of metallic materials influenced by biofilm(ii). Development and Application of Materials. 2006;21:38-43. DOI: 10.3969/j.issn.1003-1545.2006.02.009
  8. 8. Cai X, Ma K, Zhou Y, et al. Surface functionalization of titanium with tetracycline loaded chitosan–gelatin nanosphere coatings via EPD: fabrication, characterization and mechanism. RSC Advances. 2016;6:7674-7682. DOI: 10.1039/C5RA17109A
  9. 9. Su Y, Luo C, Zhang Z, et al. Bioinspired surface functionalization of metallic biomaterials. Journal of The Mechanical Behavior of Biomedical Materials. 2018;77:90-105. DOI: 10.1016/j.jmbbm.2017.08.035
  10. 10. Spear K E. Diamond–Ceramic coating of the future. Journal of the American Ceramic Society. 1989;72:171-191. DOI: 10.1111/j.1151-2916.1989.tb06099.x
  11. 11. Miller R A. Current status of thermal barrier coatings–An overview. Surface and Coatings Technology. 1987;30 DOI: 10.1016/0257-8972(87)90003-X
  12. 12. Best S M, Porter A E, Thian E S, et al. Bioceramics: Past, present and for the future. Journal of the European Ceramic Society. 2008;28:1319-1327. DOI: 10.1016/j.jeurceramsoc.2007.12.001
  13. 13. Shen G X, Chen Y C, Lin L, et al. Study on a hydrophobic nano-TiO2 coating and its properties for corrosion protection of metals. Electrochimica Acta. 2005;50:5083-5089. DOI: 10.1016/j.electacta.2005.04.048
  14. 14. Jiang J Y, Xu J L, Liu Z H, et al. Preparation, corrosion resistance and hemocompatibility of the superhydrophobic TiO2 coatings on biomedical Ti-6Al-4V alloys. Applied Surface Science. 2015;347:591-595. DOI: 10.1016/j.apsusc.2015.04.075
  15. 15. Villatte G, Massard C, Descamps S, et al. Photoactive TiO2 antibacterial coating on surgical external fixation pins for clinical application. International Journal of Nanomedicine. 2015;10:3367-3375. DOI: 10.2147/IJN.S81518
  16. 16. Gao Y, Wang C, Yao M, et al. The resistance to wear and corrosion of laser-cladding Al2O3 ceramic coating on Mg alloy. Applied Surface Science. 2007;253:5306-5311. DOI: 10.1016/j.apsusc.2006.12.001
  17. 17. Hofman R, Westheim J, Pouwel I, et al. FTIR and XPS studies on corrosion-resistant SiO2 coatings as a function of the humidity during deposition. Surface and Interface Analysis. 1996;24:1-6. DOI: 10.1002/(SICI)1096-9918(199601)24:13.0.CO;2-I
  18. 18. Sadreddini S, Afshar A. Corrosion resistance enhancement of Ni-P-nano SiO2 composite coatings on aluminum. Applied Surface Science. 2014;303:125-130. DOI: 10.1016/j.apsusc.2014.02.109
  19. 19. Wang Y, Zhou Q , Li K, et al. Preparation of Ni–W–SiO2 nanocomposite coating and evaluation of its hardness and corrosion resistance. Ceramics International. 2015;41:79-84. DOI: 10.1016/j.ceramint.2014.08.034
  20. 20. Hunter J C. Preparation of a new crystal form of manganese dioxide: λ-MnO2. Journal of Solid State Chemistry. 1981;39:142-147. DOI: 10.1016/0022-4596(81)90323-6
  21. 21. Carpino L A. Simple preparation of active manganese dioxide from activated carbon. Journal of Organic Chemistry. 1970;35:3971-3972. DOI: 10.1021/jo00836a091
  22. 22. Zang D, Xun X, Gu Z, et al. Fabrication of superhydrophobic self-cleaning manganese dioxide coatings on Mg alloys inspired by lotus flower. Ceramics International. 2020;46:20328-20334. DOI: 10.1016/j.ceramint.2020.05.121
  23. 23. Hiromoto S, Tomozawa M. Hydroxyapatite coating of AZ31 magnesium alloy by a solution treatment and its corrosion behavior in NaCl solution. Surface and Coatings Technology. 2011;205:4711-4719. DOI: 10.1016/j.surfcoat.2011.04.036
  24. 24. Parsapour A, Khorasani S N, Fathi M H. Corrosion behavior and biocompatibility of hydroxyapatite coating on H2SO4 passivated 316L SS for human body implant. Acta Metallurgica Sinica. 2013;26:409-415. DOI: 10.1007/s40195-012-0212-3
  25. 25. Surmeneva M A, Vladescu A, Surmenev R A, et al. Study on a hydrophobic Ti-doped hydroxyapatite coating for corrosion protection of a titanium based alloy. RSC Advances. 2016;6:87665-87674. DOI: 10.1039/c6ra03397k
  26. 26. Smialek J L, Robinson R C, Opila E J, et al. SiC and Si3N4 recession due to SiO2 scale volatility under combustor conditions. Advanced Composite Materials. 1999;8:33-45. DOI: 10.1163/156855199x00056
  27. 27. Lee K N, Fox D S, Bansal N P. Rare earth silicate environmental barrier coatings for SiC/SiC composites and Si3N4 ceramics. Journal of the European Ceramic Society. 2005;25:1705-1715. DOI: 10.1016/j.jeurceramsoc.2004.12.013
  28. 28. Pazo A, Saiz E, Tomsia A P. Silicate glass coatings on Ti-based implants. Acta Materialia. 1998;46:2551-2558. DOI: 10.1016/S1359-6454(98)80039-6
  29. 29. Xu Y, Hu X, Xu F, et al. Rare earth silicate environmental barrier coatings: Present status and prospective. Ceramics International. 2017;43:5847-5855 DOI: 10.1016/j.ceramint.2017.01.153
  30. 30. Wu J H, Phillips B S, Jiang W, et al. Bio-inspired surface engineering and tribology of MoS2 overcoated cBN–TiN composite coating. Wear. 2006;261:592-599. DOI: 10.1016/j.wear.2006.01.027
  31. 31. Xu R, Wang J, He L, et al. Study on the characteristics of Ni–W–P composite coatings containing nano-SiO2 and nano-CeO2 particles. Surface and Coatings Technology. 2008;202:1574-1579. DOI: 10.1016/j.surfcoat.2007.07.012
  32. 32. Yazdani A, Isfahani T. Hardness, wear resistance and bonding strength of nano structured functionally graded Ni-Al2O3 composite coatings fabricated by ball milling method. Advanced Powder Technology. 2018;29:1306-1316. DOI: 10.1016/j.apt.2018.02.025
  33. 33. Yizhou S, Haijun T, Yuebin L, et al. Fabrication and wear resistance of TiO2/Al2O3 coatings by micro-arc oxidation. Rare Metal Materials and Engineering. 2017;46:23-27. DOI: 10.1016/s1875-5372(17)30071-1
  34. 34. Kim W B, Kwon S C, Cho, S H, et al. Effect of the grain size of YSZ ceramic materials on corrosion resistance in a hot molten salt CaCl2-CaF2-CaO system. Corrosion Science. 2020;170:108664. DOI: 10.1016/j.corsci.2020.108664
  35. 35. Xun X, Zhu R, Dong J, et al. Superhydrophobic light alloy materials with corrosion-resistant surfaces. Research and Application of Materials Science. 2020;2. DOI: 10.33142/MSRA.V2I1.1972
  36. 36. Tiwari S K, Sahu R K, Pramanick A K, et al. Development of conversion coating on mild steel prior to sol gel nanostructured Al2O3 coating for enhancement of corrosion resistance. Surface and Coatings Technology. 2011;205:4960-4967. DOI: 10.1016/j.surfcoat.2011.04.087
  37. 37. Wang J, Li D, Liu Q , et al. Fabrication of hydrophobic surface with hierarchical structure on Mg alloy and its corrosion resistance. Electrochimica Acta. 2010;55:6897-6906. DOI: 10.1016/j.electacta.2010.05.070
  38. 38. Ghosh S. Thermal properties of glass-ceramic bonded thermal barrier coating system. Transactions of Nonferrous Metals Society of China. 2015;25:457-464. DOI: 10.1016/s1003-6326(15)63624-x
  39. 39. Marti A. Inert bioceramics (Al2O3, ZrO2) for medical application. Injury-International Journal of the Care of the Injured. 2000;31:S33-S36
  40. 40. Song Y W, Shan D Y, Han E H. Electrodeposition of hydroxyapatite coating on AZ91D magnesium alloy for biomaterial application. Materials Letters. 2008;62:3276-3279. DOI: 10.1016/j.matlet.2008.02.048
  41. 41. Sun L, Berndt C, Gross K A, et al. Material fundamentals and clinical performance of plasma sprayed hydroxyapatite coatings: A review. Journal of Biomedical Materials Research. 2001;58:570-592. DOI: 10.1002/jbm.1056.abs
  42. 42. Małecka J, Krzak-Roś J. Preparation of SiO2 coating by sol-gel method, to improve high-temperature corrosion resistance of a γ-TiAl phase based alloy. Advances in Materials Sciences. 2013;12:1-12. DOI: 10.2478/v10077-012-0011-6
  43. 43. Wu H, Zhang X, Geng Z, et al. Preparation, antibacterial effects and corrosion resistant of porous Cu–TiO2 coatings. Applied Surface Science. 2014;308:43-49. DOI: 10.1016/j.apsusc.2014.04.081
  44. 44. Lu J, Li Y, Song W, et al. Atomic layer deposition onto thermoplastic polymeric nanofibrous aerogel templates for tailored surface properties. ACS Nano. 2020. DOI: 10.1021/acsnano.9b09497
  45. 45. Huang L, Jing S, Zhuo O, et al. Surface hydrophilicity and antifungal properties of TiO2 films coated on a Co-Cr substrate. BioMed Research International. 2017;2017:1-7. DOI: 10.1155/2017/2054723
  46. 46. Abdulagatov A I, Yan Y, Cooper J R, et al. Al2O3 and TiO2 atomic layer deposition on copper for water corrosion resistance. ACS Appllied Materials Interfaces. 2011;3:4593-4601. DOI: 10.1021/am2009579
  47. 47. Charlot A, Deschanels X, Toquer G. Submicron coating of SiO2 nanoparticles from electrophoretic deposition. Thin Solid Films. 2014;553:148-152. DOI: 10.1016/j.tsf.2013.11.064
  48. 48. Vengatesh P, Kulandainathan M A. Hierarchically ordered self-lubricating superhydrophobic anodized aluminum surfaces with enhanced corrosion resistance. ACS Applied Materials & Interfaces. 2015;7:1516-1526. DOI: 10.1021/am506568v
  49. 49. Gao Y L, Liu Y, Song X Y. Plasma-sprayed hydroxyapatite coating for improved corrosion resistance and bioactivity of magnesium alloy. Journal of Thermal Spray Technology. 2018;27:1381-1387. DOI: 10.1007/s11666-018-0760-9
  50. 50. Sun C, Hui R, Qu W, et al. Effects of processing parameters on microstructures of TiO2 coatings formed on titanium by plasma electrolytic oxidation. Journal of Materials Science. 2010;45:6235-6241. DOI: 10.1007/s10853-010-4718-7
  51. 51. Krishna D S R, Sun Y. Thermally oxidised rutile-TiO2 coating on stainless steel for tribological properties and corrosion resistance enhancement. Applied Surface Science. 2005;252:1107-1116. DOI: 10.1016/j.apsusc.2005.02.046
  52. 52. Song J, Lu Y, Huang S, et al. A simple immersion approach for fabricating superhydrophobic Mg alloy surfaces. Applied Surface Science. 2013;266:445-450. DOI: 10.1016/j.apsusc.2012.12.063
  53. 53. Qu M, Zhang B, Song S, et al. Fabrication of superhydrophobic surfaces on engineering materials by a solution-immersion process. Advanced Functional Materials. 2007;17:593-596. DOI: 10.1002/adfm.200600472
  54. 54. Xun X, Wan Y, Zhang Q , et al. Low adhesion superhydrophobic AZ31B magnesium alloy surface with corrosion resistant and anti-bioadhesion properties. Applied Surface Science. 2020;505:144566. DOI: 10.1016/j.apsusc.2019.144566
  55. 55. Boinovich L B, Modin E B, Sayfutdinova A R, et al. Combination of Functional Nanoengineering and Nanosecond Laser Texturing for Design of Superhydrophobic Aluminum Alloy with Exceptional Mechanical and Chemical Properties. ACS Nano. 2017;11:10113-10123. DOI: 10.1021/acsnano.7b04634
  56. 56. Boinovich L B, Emelyanenko A M, Modestov A D, et al. Synergistic effect of superhydrophobicity and oxidized layers on corrosion resistance of aluminum alloy surface textured by nanosecond laser treatment. ACS Applied Materials Interfaces. 2015;7:19500-19508. DOI: 10.1021/acsami.5b06217
  57. 57. Li Z, Wei M, Xiao K, et al. Microhardness and wear resistance of Al2O3-TiB2-TiC ceramic coatings on carbon steel fabricated by laser cladding. Ceramics International. 2019;45:115-121. DOI: 10.1016/j.msec.2020.110847
  58. 58. Procopio A M S, Carvalho J D L, Silveira T H R, et al. CeO2 thin film supported on TiO2 porous ceramics Materials Letters. 2020;276:128224. DOI: 10.1016/j.matlet.2020.128224
  59. 59. Naveas, N, Manso-Silvan M, Pulido R, et al. Fabrication and characterization of nanostructured porous silicon-silver composite layers by cyclic deposition: dip-coating vs spin-coating. Nanotechnology. 2020;31:365704. DOI: 10.1088/1361-6528/ab96e5
  60. 60. Yu J, Liu S, Li F, et al. Na2SiO3/Al2O3 composite coatings on 304 stainless steels for enhanced high temperature oxidation inhibition and chloride-induced corrosion resistance. Surface and Coatings Technology. 2017;309:1089-1098. DOI: 10.1016/j.surfcoat.2016.10.003
  61. 61. Qin D, Xu G, Yang Y, et al. Multiphase ceramic coatings with high hardness and wear resistance on 5052 aluminum alloy by a microarc oxidation method. ACS Sustainable Chemistry & Engineering. 2018;6:2431-2437. DOI: 10.1021/acssuschemeng.7b03883
  62. 62. Pinzón A V, Urrego K J, González-Hernández A, et al. Corrosion protection of carbon steel by alumina-titania ceramic coatings used for industrial applications. Ceramics International. 2018;44:21765-21773. DOI: 10.1016/j.ceramint.2018.08.273
  63. 63. Zhang X, Shi F, Niu J, et al. Superhydrophobic surfaces: from structural control to functional application. Journal of Materials Chemistry. 2008;18:621-633. DOI: 10.1039/B711226B
  64. 64. Luo S, Zheng L, Luo H, et al. A ceramic coating on carbon steel and its superhydrophobicity. Applied Surface Science. 2019;486:371-375. DOI: 10.1016/j.apsusc.2019.04.235
  65. 65. Xu P, Coyle T W, Pershin L, et al. Superhydrophobic ceramic coating: Fabrication by solution precursor plasma spray and investigation of wetting behavior. Journal of Colloid Interface Science. 2018;523:35-44. DOI: 10.1016/j.jcis.2018.03.018
  66. 66. Emarati S M, Mozammel M. Efficient one-step fabrication of superhydrophobic nano-TiO2/TMPSi ceramic composite coating with enhanced corrosion resistance on 316L. Ceramics International. 2020;46:1652-1661. DOI: 10.1016/j.ceramint.2019.09.137
  67. 67. Zhang F, Robinson B, de Villiers-Lovelock H, et al. Wettability of hierarchically-textured ceramic coatings produced by suspension HVOF spraying. Journal of Materials Chemistry A. 2015;3:13864-13873. DOI: 10.1039/c5ta02130h
  68. 68. Lai Y, Tang Y, Gong J, et al. Transparent superhydrophobic/superhydrophilic TiO2-based coatings for self-cleaning and anti-fogging. Journal of Materials Chemistry. 2012;22:7420-7426. DOI: 10.1039/c2jm16298a
  69. 69. Zang D, Wu C, Zhu R, et al. Porous copper surfaces with improved superhydrophobicity under oil and their application in oil separation and capture from water. Chemical Communications. 2013;49: 8410-8412. DOI: 10.1039/c3cc43536a
  70. 70. Heimann R B. Osseoconductive and corrosion-inhibiting plasma-sprayed calcium phosphate coatings for metallic medical implants. Metals. 2017;7:468. DOI: 10.3390/met7110468
  71. 71. Surmenev R A, Surmeneva M A, Ivanova A. Significance of calcium phosphate coatings for the enhancement of new bone osteogenesis–A review. Acta Biomaterialia. 2014;10:557-579. DOI: 10.1016/j.actbio.2013.10.036
  72. 72. Jokinen V, Kankuri E, Hoshian S, et al. Superhydrophobic blood-repellent surfaces. Advanced Materials. 2018;30:e1705104. DOI: 10.1002/adma.201705104
  73. 73. Zhang P, Lin L, Zang D, et al. Designing bioinspired anti-biofouling surfaces based on a superwettability strategy. Small. 2017;13:1503334. DOI: 10.1002/smll.201503334
  74. 74. Hu C, Liu S, Li B, et al. Micro−/nanometer rough structure of a superhydrophobic biodegradable coating by electrospraying for initial anti-bioadhesion. Advanced Healthcare Materials. 2013;2:1314-1321. DOI: 10.1002/adhm.201300021
  75. 75. Movafaghi S, Leszczak V, Wang W, et al. Hemocompatibility of superhemophobic titania surfaces. Advanced Healthcare Materials. 2017;6: 1600717. DOI: 10.1002/adhm.201600717

Written By

Dongmian Zang and Xiaowei Xun

Submitted: 26 June 2020 Reviewed: 31 August 2020 Published: 28 October 2020