There Are over 60 Ways to Produce Biocompatible Calcium Orthophosphate (CaPO4) Deposits on Various Substrates
Abstract
:1. Introduction
2. General Knowledge, Terminology and Definitions
- The kernel contains substances that are toxic, cause adverse or allergic reactions, or have a bitter or unpleasant odor;
- The coating protects the core material from its environment and increases its stability and shelf life;
- The coating improves mechanical integrity, which means that coated products are more resistant to misuse (e.g., wear and tear);
- Modification of the surface properties of the core, such as biocompatibility, light reflection, electrical conductivity, color, etc.;
- Decoration (in cases where the core alone is tasteless);
- The core contains material that can easily migrate and stain hands, clothes, etc.;
- Changing the release profile of active ingredients, such as pharmaceuticals, from the core.
3. Brief Knowledge on the Important Pre- and Post-Deposition Treatments
- Part 1.
- Methods to Produce Biocompatible CaPO4 Deposits
4. CaPO4 Deposited on Various Substrates
4.1. Thermal Spraying Deposition Techniques
4.1.1. Plasma Spraying
4.1.2. High Velocity Oxy-Fuel (HVOF) Spraying
4.2. Vapor Deposition Techniques
4.2.1. Ion- and Electron-Beam Assisted (IBAD and EBAD) Depositions
4.2.2. Pulsed Laser Deposition (PLD)
4.2.3. Magnetron Sputtering
4.2.4. Electron-Cyclotron-Resonance (ECR) Plasma Sputtering
4.2.5. Metalorganic Chemical Vapor Deposition (MOCVD)
4.2.6. Molecular Precursor and Thermal Decomposition Techniques
4.3. Wet Techniques
4.3.1. Electrophoretic Deposition (EPD)
4.3.2. Electrochemical (ECD) or Cathodic Deposition
4.3.3. Sol–Gel Deposition
4.3.4. Wet-Chemical and Biomimetic Deposition Techniques
4.3.5. Dip Coating Technique
4.3.6. Spin Coating Technique
4.3.7. Hydrothermal Deposition Method
4.3.8. Thermal Substrate Deposition Technique
4.3.9. Alternate Soaking Deposition
4.3.10. Micro-Arc Oxidation (MAO) Technique
4.4. Other CaPO4 Deposition Techniques: Miscellaneous
4.4.1. Hot Isostatic Pressing (HIP)
4.4.2. Implantation into the Surface of Superplastic Alloys
4.4.3. A Double Layered Capsule Hydrothermal Hot Pressing
4.4.4. Detonation Gun (D-Gun) Spraying
4.4.5. Aerosol–Gel Deposition
4.4.6. Aerosol Deposition (AD)
4.4.7. Cold Spraying (CS)
4.4.8. Blast Coating
4.4.9. Direct Laser Melting
4.4.10. Transmission Laser Coating
4.4.11. Laser Cladding
4.4.12. Laser-Engineered Net Shaping (LENS™)
4.4.13. Matrix Assisted Pulsed Laser Evaporation (MAPLE)
4.4.14. Liquid Phase Laser Deposition
4.4.15. Laser-Induced Forward Transfer with Optical Stamp (LIFTOP)
4.4.16. Laser-Induced Single-Step Coating (LISSC)
4.4.17. Electrostatic Spray Deposition (ESD) Technique
4.4.18. Spray Pyrolysis (Pyrosol) Technique
4.4.19. Polymeric Deposition Route
4.4.20. Atomic Layer Deposition (ALD)
4.4.21. Drop-On-Demand (DOD) Micro-Dispensing Technique
4.4.22. Vapor Diffusion Sitting Drop Micro-Method (VDSDM)
4.4.23. Mechanochemical Synthesis or Ball Impact Method
4.4.24. Mechanofusion
4.4.25. Autocatalytic Deposition
4.4.26. Galvanic Deposition
4.4.27. Anodization Technique
4.4.28. Simultaneous Precipitation and Electrodeposition
4.4.29. Electrical Stimulation
4.4.30. Cyclic Electrodeposition
4.4.31. Cyclic Spin Coating
4.4.32. Biomediated Deposition Technique (Biosynthesis)
4.4.33. Emulsion Route
4.4.34. Slurry Processing Technique
4.4.35. Slip Coating Technique
4.4.36. Deposition by Solvent Evaporation
4.4.37. Discrete Crystalline Deposition
4.4.38. Powder Mixed Electrical Discharge Machining (PMEDM)
4.4.39. Investment Casting
4.4.40. Brush Painting
4.4.41. Photocatalytic Deposition
4.4.42. Adsorption
4.4.43. Sonocoating
4.4.44. Ultrasonic Mechanical Coating and Armoring (UMCA)
4.4.45. Osteomimetic Deposition
4.4.46. Surface-Induced Mineralization (SIM)
4.4.47. Ionized Jet Deposition (IJD)
4.4.48. Undisclosed Proprietary Deposition Techniques
4.4.49. Additive Manufacturing Techniques
5. Deposition of Ion-Substituted CaPO4 and CaPO4-Containing Biocomposites
6. Conversion-Formed CaPO4 Deposits
- Part 2.
- Properties and Applications
7. A Brief Description of the Most Important Properties
7.1. Introduction
7.2. Elastic Modulus and Hardness
7.3. Fatigue Properties
7.4. Thickness
7.5. Adhesion and Cohesion
7.6. Surface Characteristics: Crystallinity, Morphology and Roughness
7.7. Biodegradation
7.8. Interaction with Cells and Tissue Responses
8. Biomedical Applications of CaPO4 Deposits
9. Future Directions
10. Conclusions
Funding
Data Availability Statement
Conflicts of Interest
References
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Ca/P Molar Ratio | Compound | Formula | Solubility at 25 °C, −log(Ks) | Solubility at 25 °C, g/L | pH Stability Range in Aqueous Solutions at 25 °C |
---|---|---|---|---|---|
0.5 | Monocalcium phosphate monohydrate (MCPM) | Ca(H2PO4)2·H2O | 1.14 | ~18 | 0.0–2.0 |
0.5 | Monocalcium phosphate anhydrous (MCPA or MCP) | Ca(H2PO4)2 | 1.14 | ~17 | c |
1.0 | Dicalcium phosphate dihydrate (DCPD), mineral brushite | CaHPO4·2H2O | 6.59 | ~0.088 | 2.0–6.0 |
1.0 | Dicalcium phosphate anhydrous (DCPA or DCP), mineral monetite | CaHPO4 | 6.90 | ~0.048 | c |
1.33 | Octacalcium phosphate (OCP) | Ca8(HPO4)2(PO4)4·5H2O | 96.6 | ~0.0081 | 5.5–7.0 |
1.5 | α-Tricalcium phosphate (α-TCP) | α-Ca3(PO4)2 | 25.5 | ~0.0025 | a |
1.5 | β-Tricalcium phosphate (β-TCP) | β-Ca3(PO4)2 | 28.9 | ~0.0005 | a |
1.2–2.2 | Amorphous calcium phosphates (ACP) | CaxHy(PO4)z·nH2O, n = 3–4.5; 15–20% H2O | b | b | ~5–12 d |
1.5–1.67 | Calcium-deficient hydroxyapatite (CDHA or Ca-def HA) e | Ca10-x(HPO4)x(PO4)6-x(OH)2-x (0 < x < 1) | ~85 | ~0.0094 | 6.5–9.5 |
1.67 | Hydroxyapatite (HA, HAp or OHAp) | Ca10(PO4)6(OH)2 | 116.8 | ~0.0003 | 9.5–12 |
1.67 | Fluorapatite (FA or FAp) | Ca10(PO4)6F2 | 120.0 | ~0.0002 | 7–12 |
1.67 | Oxyapatite (OA, OAp or OXA) f, mineral voelckerite | Ca10(PO4)6O | ~69 | ~0.087 | a |
2.0 | Tetracalcium phosphate (TTCP or TetCP), mineral hilgenstockite | Ca4(PO4)2O | 38–44 | ~0.0007 | a |
Properties | Specification |
---|---|
Thickness | Not specific |
Crystallinity | 62% minimum |
Phase purity | 95% minimum |
Ca/P atomic ratio | 1.67–1.76 |
Density | 2.98 g/cm3 |
Heavy metals | <50 ppm |
Tensile strength | >50.8 MPa |
Shear strength | >22 MPa |
Abrasion | Not specific |
Technique | Thickness | Advantages | Disadvantages |
---|---|---|---|
Plasma spraying | 30–200 μm | A simple and flexible technique; uniform and smooth coatings are produced; high deposition rates; low cost | Line-of-sight technique; high temperatures induce partial decomposition and formation of non-stoichiometric and amorphous compounds; expensive equipment; simultaneous incorporation of biological agents is impossible; rapid cooling produces cracks |
Flame spraying | 100–250 μm | Most economical among all thermal spraying techniques; easily adaptable; porous deposits | Line-of-sight technique; high temperatures induce partial decomposition and formation of non-stoichiometric and amorphous compounds; crack development at lower temperatures, simultaneous incorporation of biological agents is impossible; rapid cooling produces cracks |
High velocity oxy-fuel spraying | 30–200 µm | High deposition rates; uniform deposition; improved wear and corrosion resistance and biocompatibility; no post treatment required | Line-of-sight technique; high temperatures induce partial decomposition and formation of non-stoichiometric and amorphous compounds; simultaneous incorporation of biological agents is impossible; rapid cooling produces cracks |
RF magnetron sputtering | 0.5–3 μm | Uniform coating thickness on flat substrates; high purity and adhesion; dense pore-free deposits; excellent coverage of steps and small features; ability to coat heat-sensitive substrates | Line-of-sight technique; expensive; low deposition rates; produces amorphous coatings; high temperatures prevent from simultaneous incorporation of biological agents |
Pulsed laser deposition (laser ablation) | 0.05–5 μm | Coatings with crystalline and amorphous phases; dense and porous coatings; high adhesive strength; ability to produce wide range of multilayer coatings from different materials | Line-of-sight technique; expensive; high temperatures prevent simultaneous incorporation of biological agents; lack of uniformity |
Ion beam assisted deposition | 0.05–1 µm | Uniform coating thickness; high reproducibility and reliability; dense; high adhesion; wide atomic intermix zone at the coating/substrate interface | Line-of-sight technique; expensive; produces amorphous coatings |
Sputtering | 0.5–3 μm | Uniform coating thickness on flat substrates; dense; high adhesion | Line-of-sight technique; expensive equipment; time-consuming; produces amorphous coatings |
Electrostatic spray deposition | 10 nm–30 μm | Low cost; easy set-up; ambient conditions; a wide choice of both precursors (dissolved salts, suspensions, sols) and substrates | Line-of-sight technique; problems coating large surfaces; low flow rates; requires high temperatures to decompose the precursor solvents and salts |
Dip coating | 2 μm –5 mm | Easy set-up; low cost; coatings applied quickly; can coat complex substrates | Requires high sintering temperatures; possible thermal expansion mismatch; crack appearance |
Spin coating | 2 μm–0.5 mm | Easy set-up; low cost; coatings applied quickly | Requires high sintering temperatures; possible thermal expansion mismatch; crack appearance; cannot coat complex substrates |
Sol–gel technique | <1 μm | Can coat complex shapes; low processing temperatures; thin coatings; inexpensive process; can incorporate biological molecules | Some processes require controlled atmosphere processing; expensive raw materials; high permeability; low wear resistance; hard to control the porosity |
Electrophoretic deposition | 0.1–2.0 mm | Uniform coating thickness; rapid deposition rates; simple setup; low cost; can coat complex substrates; can incorporate biological molecules | Difficult to produce crack-free coatings; requires post treatment at high temperatures |
Electrochemical (cathodic) deposition | 0.05–0.5 mm | Good shape conformity; room temperature process; uniform coating thickness; short processing times; can incorporate biological molecules | Sometimes stressed coatings are produced, leading to their poor adhesion with substrate; requires good control of electrolyte parameters |
Biomimetic process | <30 μm | Low processing temperatures; can form bonelike apatite; can coat complex shapes; can incorporate biological molecules | Very low deposition rates; requires replenishment and a pH constancy of the simulating solutions (HBSS, SBF, etc.) |
Hydrothermal deposition | 0.2–2.0 μm | Coatings are crystalline; can coat complex shapes | High pressure and temperatures are required |
Thermal substrate deposition | 0.2–2.0 μm | Deposition is enhanced by heat and current; different CaPO4 phases can be formed | Less common technique; coatings of diverse crystallinities are produced |
Hot isostatic pressing | 0.2–2.0 μm | Produces dense coatings; homogeneous structure; high uniformity; high precision; no dimensional or shape limitations | Cannot coat complex substrates; high temperature required; thermal expansion mismatch; elastic property differences; expensive; removal/interaction of encapsulation material; high temperatures prevent simultaneous incorporation of biological agents |
Micro-arc oxidation | 3–30 μm | Simple, economical and environmentally friendly technique, suitable for coating of complex geometries | Unless the proper electrolytes are used, the procedure rather should be considered as a pre-deposition technique onto which CaPO4 are deposited by other methods |
Dynamic mixing method | 0.05–1.3 μm | High adhesive strength | Line-of-sight technique; expensive; produces amorphous coatings |
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Dorozhkin, S.V. There Are over 60 Ways to Produce Biocompatible Calcium Orthophosphate (CaPO4) Deposits on Various Substrates. J. Compos. Sci. 2023, 7, 273. https://doi.org/10.3390/jcs7070273
Dorozhkin SV. There Are over 60 Ways to Produce Biocompatible Calcium Orthophosphate (CaPO4) Deposits on Various Substrates. Journal of Composites Science. 2023; 7(7):273. https://doi.org/10.3390/jcs7070273
Chicago/Turabian StyleDorozhkin, Sergey V. 2023. "There Are over 60 Ways to Produce Biocompatible Calcium Orthophosphate (CaPO4) Deposits on Various Substrates" Journal of Composites Science 7, no. 7: 273. https://doi.org/10.3390/jcs7070273