Part I of this paper describes the background, general concepts, available techniques and the clinical applications of recording external craniofacial morphology in three dimensions. Part II explores the different 3D techniques of imaging the dental arches, and their possible uses in orthodontic diagnosis and treatment.
BroadbentBSA new X-ray technique and its application to orthodontia. Angle Orthod1931; 1: 45–66.
3.
SinghIJ, SavaraBSNorms of size and annual increments of seven anatomical measures of maxillae in girls from three to sixteen years of age. Angle Orthod1966; 36: 312–24.
4.
DeanD, HansMG, BooksteinFL, SubramanyanKThree-dimensional Bolton-Brush Growth Study landmark data: ontogeny and sexual dimorphism of the Bolton standards cohort. Cleft Palate Craniofac J2000; 37: 145–56.
5.
SubramanyanK, DeanDScanned bi-orthogonal radiographs as a source for 3D cephalometric data. SPIE1996; 34: 717–24.
6.
BurkePH, BeardFHStereophotogrammetry of the face. A preliminary investigation into the accuracy of a simplified system evolved for contour mapping by photography. Am J Orthod1967; 53: 769–82.
7.
UdupaJ, HermanG.3D Imaging in Medicine. Boca Raton: CRC Press, 1991.
HajeerMY, AyoubAF, MillettDT, BockM, SiebertJPThree-dimensional imaging in orthognathic surgery — the clinical application of a new method. Int J Adult Orthod Orthognath Surg2002; 17: 318–30.
10.
PalomoJM, DeanD, BroadbentBJThree-dimensional craniofacial shape change in sixteen female Bolton faces. In McNamaraJJ (Ed.) The Enigma of the Vertical Dimension, Craniofacial Growth Series, pp. 287–310. Ann Arbor: Ann Arbor Center for Growth and Development, University of Michigan, 2000.
11.
AyoubAF, SiebertP, MoosKF, WrayD, UrquhartC, NiblettTBA vision-based three-dimensional capture system for maxillofacial assessment and surgical planning. Br J Oral Maxillofac Surg1998; 36: 353–7.
12.
MotoyoshiM, NamuraS, AraiHYA three-dimensional measuring system for the human face using three-directional photography. Am J Orthod Dentofac Orthop1992; 101: 431–40.
13.
NguyenCX, NissanovJ, OzturkC, NuveenMJ, TuncayOCThree-dimensional imaging of the craniofacial complex. Clin Orthod Res2000; 3: 46–50.
14.
TuncayOCThree-dimensional imaging and motion animation. Semin Orthod2001; 7: 244–50.
15.
TechalertpaisarnP, KurodaTThree-dimensional computer-graphic demonstration of facial soft tissue changes in mandibular prognathic patients after mandibular sagittal ramus osteotomy. Int J Adult Orthod Orthog Surg1998; 13: 217–25.
16.
CurryS, BaumrindS, CarlsonS, BeersA, BoydRIntegrated three-dimensional craniofacial mapping at the Craniofacial Research Instrumentation Laboratory/University of the Pacific. Semin Orthod2001; 7: 258–65.
17.
RasF, HabetsLL, van GinkelFC, Prahl-AndersenB.Quantification of facial morphology using stereophotogrammetry – demonstration of a new concept. J Dent1996; 24: 369–74.
18.
AyoubAF, WrayD, MoosKF, SiebertP, JinJ, NiblettTB, Three-dimensional modeling for modern diagnosis and planning in maxillofacial surgery. Int J Adult Orthod Orthog Surg1996; 11: 225–33.
19.
AyoubAF, GarrahyA, HoodC, WhiteJ, BockM, SiebertJP, Validation of a vision-based three-dimensional facial imaging system. Cleft Palate Craniofac J2003; 40: 523–9.
20.
SiebertJP, MarshallSHuman body 3D imaging by speckle texture projection photogrammetry. Sensor Review2000; 20: 218–26.
KobayashiT, UedaK, HonmaK, SasakuraH, HanadaK, NakajimaTThree-dimensional analysis of facial morphology before and after orthognathic surgery. J Craniomaxillofac Surg1990; 18: 68–73.
24.
McCanceAM, MossJP, WrightWR, LinneyAD, JamesDRA three-dimensional soft tissue analysis of 16 skeletal class III patients following bimaxillary surgery. Br J Oral Maxillofac Surg1992; 30: 221–32.
25.
MossJP, McCanceAM, FrightWR, LinneyAD, JamesDRA three-dimensional soft tissue analysis of fifteen patients with Class II, Division 1 malocclusions after bimaxillary surgery. Am J Orthod Dentofac Orthop1994; 105: 430–7.
26.
McCanceAM, MossJP, FrightWR, JamesDR, LinneyADA three dimensional analysis of soft and hard tissue changes following bimaxillary orthognathic surgery in skeletal III patients. Br J Oral Maxillofac Surg1992; 30: 305–12.
27.
McCanceAM, MossJP, FrightWR, JamesDR, LinneyADA three-dimensional analysis of bone and soft tissue to bone ratio of movements in 17 Skeletal II patients following orthognathic surgery. Eur J Orthod1993; 15: 97–106.
28.
SonculM, BamberMAThe optical surface scan as an alternative to the cephalograph for soft tissue analysis for orthognathic surgery. Int J Adult Orthod Orthog Surg1999; 14: 277–83.
29.
MorrisDO, IllingHM, LeeRTA prospective evaluation of Bass, Bionator and Twin Block appliances. Part II — the soft tissues. Eur J Orthod1998; 20: 663–84.
30.
IsmailSF, MossJP, HennessyRThree-dimensional assessment of the effects of extraction and nonextraction orthodontic treatment on the face. Am J Orthod Dentofac Orthop2002; 121: 244–56.
31.
McCanceAM, MossJP, FrightWR, LinneyAD, JamesDRThree-dimensional analysis techniques — Part 1: three-dimensional soft-tissue analysis of 24 adult cleft palate patients following Le Fort I maxillary advancement: a preliminary report. Cleft Palate Craniofac J1997; 34: 36–45.
32.
BourneCO, KerrWJ, AyoubAFDevelopment of a three-dimensional imaging system for analysis of facial change. Clin Orthod Res2001; 4: 105–11.
33.
FerrarioVF, SforzaC, PoggioCE, SchmitzJHSoft-tissue facial morphometry from 6 years to adulthood: a three-dimensional growth study using a new modeling. Plast Reconstr Surg1999; 103: 768–78.
34.
BerkowitzS, CuzziJBiostereometric analysis of surgically corrected abnormal faces. Am J Orthod1977; 72: 526–38.
35.
MotegiN, TsutsumiS, OkumuraH, YokoeY, IizukaTMorphologic changes in the perioral soft tissues in patients with mandibular hyperplasia using a laser system for three-dimensional surface measurement. Int J Oral Maxillofac Surg1999; 28: 15–20.