Electrical characterization of hydroxyapatite-based bioceramics

Acta Biomaterialia

Volumn 5, Issue 2, 2009, Pages 743-754

  Gittings, J P ^a   Bowen, C R ^a   Dent, A C E ^a   Turner, I G ^a   Baxter, F R ^a,b   Chaudhuri, J B ^b  

^a University of Bath   (United Kingdom)

^b University of Bath   (United Kingdom)

Author keywords

Bioceramics; Dielectric; Hydroxyapatite; Polarization; Sintering

Indexed keywords

ACTIVATION ENERGY; BIOCERAMICS; HYDROXYAPATITE; PERMITTIVITY; POROUS MATERIALS;

A.C CONDUCTIVITY; DENSE CERAMICS; ELECTRICAL CHARACTERIZATION; HIGHEST TEMPERATURE; INFLUENCE OF WATER; INTERCONNECTED POROSITY; SURFACE-BOUND WATER; THERMAL HISTORY; WATER DESORPTION; WATER VAPOUR;

SINTERING;

BIOCERAMICS; HYDROXYAPATITE; HYDROXYL GROUP; WATER;

AIR; ARTICLE; BONE GROWTH; BONE PROSTHESIS; CERAMICS; CONDUCTANCE; CONTROLLED STUDY; DEHYDRATION; DESORPTION; HIGH TEMPERATURE PROCEDURES; ION TRANSPORT; POLARIZATION; POROSITY; PRIORITY JOURNAL; ROOM TEMPERATURE; TEMPERATURE SENSITIVITY; THERMAL EXPOSURE; WATER VAPOR;

HELIOTHIS ZEA VIRUS 1;

EID: 57849146013     PISSN: 17427061     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.actbio.2008.08.012     Document Type: Article

References (56)

1. Hench L.L. Bioceramics. J Am Ceram Soc 81 (1998) 1705-1728
2. Hing K.A., Best S.M., Tanner K.E., Bonfield W., and Revell P.A. Mediation of bone ingrowth in porous hydroxyapatite bone graft substitutes. J Biomed Mater Res A 68 (2003) 187-200
3. Lee K.Y., Park M., Kim H.M., Lim Y.J., Chun H.J., Kim H., et al. Ceramic bioactivity: progresses, challenges and perspectives. Ann Biomed Mater 1 (2006) R31-R37
4. Sopyan I., Mel M., Ramesh S., and Khalid K.A. Porous hydroxyapatite for artificial bone applications. Sci Technol Adv Mater 8 (2007) 116-123
5. Callcut S., and Knowles J.C. Correlation between structure and compressive strength in a reticulated glass-reinforced hydroxyapatite foam. J Mater Sci Mater Med 13 (2003) 485-489
6. White A.A., Best S.M., and Kinloch I.A. Hydroxyapatite-carbon nanotube composites for biomedical applications: a review. Int J App Ceram Technol 4 (2007) 1-13
7. Yamashita K., Kitagaki K., and Umegaki T. Thermal-instability and proton conductivity of ceramic hydroxyapatite at high-temperatures. J Am Ceram Soc 78 (1995) 1191-1197
8. Mahabole M.P., Aiyer R.C., Ramakrishna C.V., Sreedhar B., and Khairnar R.S. Synthesis, characterization and gas sensing property of hydroxyapatite ceramic. Bull Mater Sci 28 (2005) 535-545
9. Yamashita K., Owada H., Umegaki T., Kanazawa T., and Futagamu T. Ionic-conduction in apatite solid-solutions. Solid State Ionics 28 (1988) 660-663
10. Hoepfner T.P., and Case E.D. The porosity dependence of the dielectric constant for sintered hydroxyapatite. J Biomed Mater Res 60 (2002) 643-650
11. Orlovskii V.P., Zakharov N.A., and Ivanov A.A. Structural transition and dielectric characteristics of high-purity hydroxyapatite. Inorg Mater 32 (1996) 654-656
12. 2) ceramics. Tech Phys Lett 27 (2001) 629-631
13. Nagai M., and Nishino T. Surface conduction of porous hydroxyapatite ceramics at elevated-temperatures. Solid State Ionics 28-30 (1988) 1456-1461
14. Fanovich M.A., Castro M.S., and Porto Lopez J.M. Analysis of the microstructural evolution in hydroxyapatite ceramics by electrical characterisation. Ceram Int 25 (1999) 517-522
15. 3 composites. Appl Phys Lett 89 (2006) 132906
16. Sh Kalil M., Beheri H.H., and Fattah W.I.A. Structural and electrical properties of zirconia/hydroxyapatite porous composites. Ceram Int 28 (2002) 451-458
17. Silva C.C., Graca M.P.F., Valente M.A., and Sombra A.S.B. AC and DC conductivity analysis of hydroxyapatite and titanium calcium phosphate formed by dry ball milling. J Non-Cryst Sol 352 (2006) 1490-1494
18. Prieto Valdes J.J., Victorero Rodriguez A., and Guevara Carrio J. Dielectric properties and structure of hydroxyapatite ceramics sintered by different conditions. J Mater Res 10 (1995) 2174-2177
19. 2O vapour on the protonic conduction properties of ceramic hydroxyapatite. J Mater Sci Lett 10 (1991) 4-6
20. Hontsu S., Matsumoto T., Ishii J., Nakamori M., Tabata H., and Kawai T. Electrical properties of hydroxyapatite thin films grown by pulsed laser deposition. Thin Solid Films 295 (1997) 214-217
21. Silva C.C., Almeida A.F.L., De Oliveira R.S., Pinheiro A.G., Goes J.C., and Sombra A.S.B. Dielectric permittivity and loss of hydroxyapatite screen-printed thick films. J Mater Sci 38 (2003) 3713-3720
22. Itoh S., Nakamura S., Kobayashi T., Shinomiya K., Yamashita K., and Itoh S. Effect of electrical polarization of hydroxyapatite ceramics on new bone formation. Calcif Tissue Int 78 (2006) 133-142
23. Nakamura S., Kobayashi T., and Yamashita K. Highly orientated calcification in newly formed bones on negatively charged hydroxyapatite electrets. Key Eng Mater 284-286 (2005) 897-900
24. Kim H.M., Himeno T., Kokubo T., and Nakamura T. Process and kinetics of bonelike apatite formation on sintered hydroxyapatite in a simulated body fluid. Biomaterials 26 (2005) 4366-4373
25. Itoh S., Nakamura S., Nakamura M., Shinomiya K., and Yamashita K. Enhanced bone ingrowth into hydroxyapatite with interconnected pores by electrical polarization. Biomaterials 27 (2006) 5572-5579
26. Yamashita K., Oikawa N., and Umegaki T. Acceleration and deceleration of bone-like crystal growth on ceramic hydroxyapatite by electric poling. Chem Mater 8 (1996) 2697-2700
27. Nakamura M., Nagai A., Ohashi N., Tanaka Y., Sekilima Y., Nakamura S., et al. Regulation of osteoblast-like cell behaviors on hydroxyapatite by electrical polarisation. Key Eng Mater 361-363 (2008) 1055-1058
28. Takeda H., Nakamura S., Yamada K., Tsuchiya T., and Yamashita K. Dielectric properties of poled hydroxyapatite ceramics. Key Eng Mater 181-182 (2000) 35-38
29. Silva C.C., Valente M.A., Grace M.P.F., and Sombra A.S.B. The modulus formalism used in the dielectric analysis of hydroxyapatite and calcium phosphate with titanium formed by dry ball milling. J Non-Cryst Sol 351 (2005) 2945-2950
30. Tofail S.A.M., Haverty D., Stanton K.T., and McMonagle J.B. Structural order and dielectric behaviour of hydroxyapatite. Ferroelectrics 319 (2005) 117-123
31. Yamashita K., Owada H., Nakagawa H., Umegaki T., and Kanazawa T. Trivalent-cation-substituted calcium oxyhydoxyapatite. J Am Ceram Soc 69 (1986) 590-594
32. Takahashi T., Tanase S., and Yamamoto O. Electrical-conductivity of some hydroxyapatites. Electrochim Acta 23 (1978) 369-373
33. 2 (M = Ca, Pb, Ba). Mater Res Bull 36 (2001) 953-962
34. Laghzizil A., El Herch N., Bouhaouss A., Lorente G., and Macquete J. Comparison of electrical properties between fluoroapatite and hydroxyapatite materials. J Sol State Chem 156 (2001) 57-60
35. El Hammari L., Laghzizil A., Barboux P., Saoiabi A., and Lahlil K. Crystallinity and fluorine substitution effects on the proton conductivity of porous hydroxyapatites. J Solid State Chem 177 (2004) 134-138
36. Gittings J.P., Turner I.G., and Miles A.W. Calcium phosphate open porous scaffold bioceramics. Key Eng Mater 284-286 (2005) 349-352
37. Hsu Y.H., Turner I.G., and Miles A.W. Mechanical characterization of dense calcium phosphate bioceramics with interconnected porosity. J Mater Sci Mater Med 18 (2007) 2319-2329
38. Yubao L., Klein C.P.A.T., Xingdong Z., and de Groot K. Relationship between the colour change of hydroxyapatite and the trace element manganese. Biomaterials 14 (1993) 969-972
39. Rodriguez-Carvajal J. Recent advances in magnetic structure determination by neutron powder diffraction. Phys B 192 (1993) 55-69
40. Reid J.W., and Hendry J.A. Rapid, accurate phase quantification of multiphase calcium phosphate materials using Rietveld refinement. J Appl Cryst 39 (2006) 536-543
41. Abramoff M.D., Magelhaes P.J., and Ram S.J. Image processing with ImageJ. Biophotonics Int 11 (2004) 36-42
42. Zhou J., Zhang X., Chen J., Zeng S., and De Groot K. High temperature characteristics of synthetic hydroxyapatite. J Mater Sci Mater Med 4 (1993) 83-85
43. Jonscher A.K. The "universal" dielectric response. Nature 267 (1977) 673-679
44. Vainas B., Almond D.P., Luo J., and Stevens R. An evaluation of random R-C networks for modelling the bulk ac electrical response of ionic conductors. Solid State Ionics 126 (1999) 65-80
45. Almond D.P., and Vainas B. The dielectric properties of random R-C networks as an explanation of the "universal" power law dielectric response of solids. J Phys Cond Matter 11 (1999) 9081-9093
46. Bowen C.R., and Almond D.P. Modelling the "universal" dielectric response in heterogeneous materials using microstructural electrical networks. Mater Sci Tech 22 (2006) 719-724
47. Roy PK, Kalia V, Bera J. Comparison of electrical properties between Ca and Sr hydroxyapatite materials. In: International symposium on advanced materials and processing ISAMAP2K4, 6-8 December 2004, IIT, Kharagpur, India.
48. Silva C.C., Graça M.P.F., Valente M.A., Góes J.C., and Sombra A.S.B. Microwave preparation, structure and electrical properties of calcium-sodium-phosphate biosystem. J Non-Cryst Sol 352 (2006) 3512-3517
49. Gittings J.P., Bowen C.R., Turner I.G., Baxter F., and Chaudhuri J. Characterisation of ferroelectric-calcium phosphate composites and ceramics. J Eur Ceram Soc 27 (2007) 4187-4190
50. Ikoma T., Yamazaki A., Nakamura S., and Akao M. Preparation and dielectric property of sintered monoclinic hydroxyapatite. J Mater Sci Lett 18 (1999) 1225-1228
51. Rootare H.M., and Craig R.G. Vapor phase adsorption of water on hydroxyapatite. J Dent Res 56 (1977) 1437-1488
52. Markovic M., Fowler B.O., and Tung M.S. Preparation and comprehensive characterisation of a calcium hydroxyapatite reference material. J Res Natl Inst Stand Technol 109 (2004) 553-568
53. Newnham R.E. Electroceramics. Rep Prog Phys 52 (1989) 123-156
54. Nagai M., Shibuya Y., Nishino T., Saeki T., Owada H., Yamashita K., et al. Electrical-conductivity of calcium phosphate ceramics with various Ca/P ratios. J Mater Sci 26 (1991) 2949-2953
55. Royce B.S.H. Field-induced transport mechanisms in hydroxyapatite. Ann N Y Acad Sci 238 (1974) 131-138
56. 3+ substitution. J Ceram Assoc Jpn 94 (1986) 837-841