Cone-Beam Computed Tomography in Dental Practice

This article presents a review of the clinical applications of cone-beam computed tomography (CBCT) in different dental disciplines.

Cone-Beam Computed Tomography Applications in Dental Practice: A Literature Review


This article presents a review of the clinical applications of cone-beam computed tomography (CBCT) in different dental disciplines. A literature search was conducted via PubMed for studies on dental applications of CBCT published between 1998 and 2010. The search revealed a total of 540 results, of which 130 articles were clinically relevant and were analyzed in detail. CBCT is used in different dental disciplines for numerous clinical applications. The results of this systematic review show the different applications of CBCT imaging in dental practice, which are summarized and categorized under eight different dental disciplines.


Two-dimensional (2D) imaging modalities have been used in dentistry since the first intraoral radiograph was obtained in 1896. Since then, significant advances have been made in dental imaging techniques, including the introduction of panoramic imaging techniques and tomography. Advances in digital imaging techniques have led to lower radiation doses and faster processing times without changing the imaging geometry of these intraoral and panoramic technologies.

Cone-beam computed tomography (CBCT) is a new medical imaging technique that generates three-dimensional (3D) data at lower cost and lower absorbed doses than conventional computed tomography (CT). The CBCT imaging technique is based on a cone-shaped X-ray beam that is centered on a 2D detector, and the beam performs one rotation around the object, producing a series of 2D images. The images are reconstructed in a 3D data set using a modification of the original cone-beam algorithm developed by Feldkamp et al. in 198427. CBCT images from the craniofacial region are often acquired at a higher resolution than conventional CT. In addition, these systems are more compact than conventional CT systems, which make them more practical for use in dental offices48.

The application of CBCT imaging in different dental disciplines can guide diagnosis, treatment and follow-up.

This article presents a systematic review of clinical applications of CBCT in dental practice.

Materials and methods

A literature search was conducted via PubMed for CBCT imaging applications in dentistry published between January 1, 1998 and July 15, 2010 using the keywords “Cone-beam computerized tomography in dentistry”. The search revealed a total of 540 articles, which were all screened in detail. Of these articles, 410 were excluded because they were not relevant to the subject. The systematic review consisted of 130 clinically relevant articles that were analyzed further and categorized according to the discipline of application.


The search revealed 36 articles (27.7%) related to applications in oral and maxillofacial surgery (OMFS), 33 articles (25.4%) related to endodontic clinical applications, 22 articles (16.9%) related to clinical applications in implant dentistry, 15 articles (11.5%) related to orthodontic clinical applications, 10 articles (7.7%) about clinical applications in general dentistry, 8 articles (6.2%) about the temporomandibular joint (TMJ), 5 articles (3.8%) related to applications in periodontology, and 1 article (0.8%) about CBCT applications in forensic dentistry.

Summary of CBCT application-related articles according to dental specialty

Table 1. Summary of CBCT application-related articles according to dental specialty


Applications in oral and maxillofacial surgery

CBCT in OMFS has been used to investigate the exact location of jaw pathology in 3D images3, 14, 29, 65, 81, 93, 90, 102, 126, to assess impacted teeth (Fig. 1), to assess supernumerary teeth and their relation to vital structures18, 61, 62, 65, 66, 69, 80, 90, 113, 115, 123, to evaluate changes in the cortical and trabecular bone related to bisphosphonate-associated osteonecrosis of the jaws12, 29, 57, and to assess bone grafts34. CBCT has also been used to investigate paranasal sinuses6, 65 and to assess obstructive sleep apnea78, 88.

Impacted teeth in close proximity to vital structures, requiring evaluation using CBCT.

Fig 1. Impacted teeth in close proximity to vital structures, requiring evaluation using CBCT.

Because CBCT images are collected as a combination of several 2D slices, the technique is superior in overcoming superimpositions and calculating surface distances9, 10. This advantage has made CBCT the technique of choice for the investigation of mid-facial fractures8, 41, orbital fracture assessment and management128, and in inter-operative visualization of the facial bones after fracture39, 40. Furthermore, because CBCT is not a magnetic resonance technique, it is the best option for intraoperative navigation during procedures involving gun-shot wounds 72, 96.

CBCT is largely used in planning orthognathic and facial orthomorphic surgeries, which require detailed visualization of the interocclusal relationship to augment the 3D virtual skull model with a detailed representation of the dental surface. With the aid of advanced software, CBCT facilitates the visualization of soft tissue to allow for control of the post-treatment aesthetics7, 111, 112 and permits the evaluation of lip and palate bony depressions in cases of cleft palate56, 73, 125.

The ability of CBCT to detect salivary-gland defects is also under investigation108. In addition, one article has reported a tooth autotransplant case where CBCT demonstrated high accuracy, and the information provided allowed the rapid completion of the transplant operation45.

Clinical application in endodontics

CBCT is a useful tool in diagnosing apical lesions (Fig. 2a, 2b) 13, 17, 19, 20, 23, 25, 31, 64, 83, 84, 92, 115, 120. A few research studies have shown that contrast-enhanced CBCT images can be used to differentiate between apical granulomas and apical cysts by measuring the lesion density (Fig. 3a, 3b) 23, 92, 120, 106. Another article describes the use of CBCT as a tool to categorize the origin of the lesion as endodontic or non-endodontic17.

A periapical lesion in a periapical radiograph (courtesy of Dr. Fredrek Barnett).

Fig 2a. A periapical lesion in a periapical radiograph (courtesy of Dr. Fredrek Barnett).

A periapical lesion in a periapical radiograph (courtesy of Dr. Fredrek Barnett).

Fig 2b.The same periodical lesion in a CBCT image (courtesy of Dr. Fredrek Barnett).

A periapical lesion in a periapical radiograph (courtesy of Dr. Fredrek Barnett).

Fig 3a.An apical cyst in an OPG radiograph.

A periapical lesion in a periapical radiograph (courtesy of Dr. Fredrek Barnett).

Fig 3b.The same apical cyst in a CBCT image.

The superiority of CBCT in detecting fractured roots compared to 2D radiographs has been demonstrated by several clinical case reports focused on detecting vertical root fractures17, 77, 89, 92, 106, 115, 120. CBCT is considered superior to periapical radiographs in the detection of fractures in buccolingual or mesiodistal directions35, 36, in the measurement of depth in dentin133 and in the detection of horizontal root fractures17, 92, 115.

CBCT is able to detect lesions in cases of inflammatory root resorption, whereas conventional 2D x-rays cannot detect them in early stages24, 115. In other cases such as external root resorption 17, 60, 115, 120, external cervical resorption 17, 84, 91, and internal resorption 17, 84, 115, 120, CBCT cannot only detect the presence of resorption but also its extent.

CBCT can be used to determine root morphology; to measure the number of roots, canals, and accessory canals; and to establish their working lengths and angulations6, 17, 70, 77, 92, 98, 115, 119, 120. CBCT also provides accuracy in the assessment of root canal fillings19, 31, 77, 120, in the detection of pulpal extensions in talon cusps107 and in the detection of the position of fractured instruments118.

CBCT is a reliable tool for the presurgical assessment of the proximity of the tooth to adjacent vital structures, the size and extent of a lesion, and the anatomy and morphology of roots through very accurate measurements17, 20, 25, 46, 54, 77, 84, 92, 97, 106, 115, 118, 120. In emergency cases requiring tooth assessment after trauma, CBCT applications can aid in reaching a proper diagnosis to determine the most suitable treatment approach15, 16, 17, 92. Due to its reliability and accuracy, CBCT has recently been used to evaluate canal preparation in different instrumentation techniques74, 76.

Applications in implant dentistry

The increasing demand for dental implants to replace missing teeth has necessitated a technique capable of obtaining highly accurate measurements to avoid any damage to vital structures. Previously, such measurements were obtained through conventional CT; however, the ability of CBCT to provide greater accuracy in measurements at lower radiation doses has made it the preferred option in implant dentistry (Fig. 4a, 4b)21, 28, 32, 37, 46, 47, 48, 63, 65, 67, 90, 101, 103, 104 114, 116, 121, 126. Furthermore, the presence of new software to construct surgical guides has further reduced the possibility of structural damage2, 21, 30, 85, 86, 101. Another article describes the interoperative use of CBCT in two cases to guide the insertion of the implant after microsurgical bone transfer38.

A periapical lesion in a periapical radiograph (courtesy of Dr. Fredrek Barnett).

Fig 4a. An OPG radiograph for a full-mouth rehabilitation case. The data that was obtained from this image was limited.

CBCT can be used to measure bone quality4, 37, 46, 47, 78, 90, 109, 110 and quantity37, 103, 109, 116, which has led to a reduction in implant failure because the reliable information provided by CBCT has led to improvements in case selection. CBCT is also used to assess the success of bone grafts and post-treatment evaluations (Fig. 5a to 5d)90, 116.

A clinical image of multiple implants placed 5 years ago.

Fig 5a.A clinical image of multiple implants placed 5 years ago.

A periapical radiograph for implants replacing teeth 8 and 9. The data that was collected from this image was limited.

Fig 5b.A periapical radiograph for implants replacing teeth 8 and 9. The data that was collected from this image was limited.


Fig 5c.A CBCT image clearly showing the amount of bone loss.


Fig 5d. A CBCT image showing evidence of total buccal plate destruction.

Applications in orthodontics

The introduction of new software in orthodontic assessment has enabled the use of CBCT images in cephalometric analysis26, 46, 59, 65, 101 and has led to CBCT becoming the tool of choice for assessing facial growth, age, airway function1, 55, 105, and disturbances in tooth eruption75.

CBCT is a reliable tool in assessing the proximity of the tooth to vital structures that may interfere with orthodontic treatment22, 94. In cases that require the placement of tiny screw implants as temporary anchors, CBCT acts as a useful visual guiding technique for safe insertion of these anchors52, 53, 95 as well as to assess the bone density before, during and after treatment (Fig. 6)33, 99.

CBCT incorporates multiple different views of an object in one scan (e.g., frontal, right lateral, left lateral, 45-degree, and submental views), which is an additional advantage of the technique58, 124. CBCT is therefore considered a more accurate option for the clinician because the images are self-corrected for magnification, producing orthogonal images with a 1:1 ratio5.


Fig 6. A CBCT image to assess bone density during treatment.

Applications in TMJ imaging

One of the major advantages of CBCT is its ability to define the true position of the condyle in the fossa, which often reveals the possibility of dislocation of the disk in the joint 90, 117, 120 and the extent of translation of the condyle in the fossa117. Due to its accuracy, CBCT facilitates easy measurement of the roof of the glenoid fossa51, 68 and provides the ability to visualize soft tissue around the TMJ44, which may reduce the requirement for the use of MRI in these cases.

Due to these advantages, CBCT has become the imaging device of choice in cases of trauma, pain and dysfunction, and fibro-osseous ankylosis43, 82, 100, 114, as well as in the detection of condylar cortical erosion and cysts46. The use of 3D features facilitates the safe application of the image-guided puncture technique, which is a treatment modality for TMJ disk adhesion42.

Periodontics applications

The high measurement accuracy of CBCT with minimal margins of error allows its use in obtaining a detailed morphologic description of the bone120, 122, with measurement accuracy equal to that of direct measurement with a periodontal probe71, 120. CBCT also aids in assessing furcation involvement68, 115,120.

CBCT can be used in the detection of buccal and lingual defects49, 120 where conventional 2D radiography shows limitations. CBCT allows accurate measurement of intrabony defects11, 79 as well the ability to assess dehiscence, fenestration defects and periodontal cysts50, 120. CBCT has also proved its superiority in evaluating the outcome of regenerative periodontal therapy49.

Operative dentistry applications

Based on the data in the available literature, the use of CBCT in detecting occlusal caries is not yet justified because CBCT delivers a higher radiation dose to the patient compared to conventional 2D radiographs with no additional benefit. However, CBCT has proved to be useful in assessing the depth of proximal caries115.

Table 2 shows examples of typical radiation doses received from various dental radiological procedures in operative dentistry.

Cone-Beam Computed Tomography Applications in Dental Practice: A Literature Review

Table 2.Typical doses from various dental radiological procedures

Forensic applications

Dental age estimation is considered an important factor in the field of forensic science, and this estimation can be performed non-invasively using CBCT; an estimate of a subject’s age can then be derived from the subject’s pulp/tooth ratio127.


CBCT scanners represent a significant advancement in dental and maxillofacial imaging. Since their introduction for dental use in the late 1990s 129, there has been an increased interest in these devices. The number of CBCT-related articles published per year has increased tremendously over the last few years. We have performed a systematic review of the literature related to CBCT imaging applications in dental practice and summarized the applications of this new imaging technique in different dental specialties.

CBCT was used as a keyword in this systematic review. Although other keywords and terminology were entered into the PubMed search engine (e.g., cone beam volumetric scanning, true volumetric computed tomography, dental CT, dental 3D-CT, and cone beam volumetric imaging), they did not result in additional relevant articles130.

The clinical applications of CBCT imaging in dentistry are constantly increasing. The results of this systematic review showed that of the 540 articles published in the last 12 years, 130 were clinically relevant. The most common clinical applications of CBCT were in OMFS, implant dentistry, and endodontics. CBCT has shown limited use in operative dentistry because of the high radiation dose compared to conventional 2D radiography without any additional benefit.

The dental literature on CBCT is promising and indicates that more research is required to explore the benefits of CBCT in forensic dentistry. Although no literature was found on prosthodontic applications of CBCT, the improved standard of care seen in prosthodontic treatment can be attributed to applications of CBCT found in other dental specialties and related to prosthodontic, such as bone grafting, soft tissue grafting, prosthetic-driven implant placement, maxillofacial prosthodontics and Temporomandibular joint disorders. CBCT images are important in special cases that require the assessment of restorability of multiple teeth (Fig. 7a to 7e).

Cone-Beam Computed Tomography Applications in Dental Practice: A Literature Review

Fig 7a.Multiple endodontically treated teeth in a patient with a history of periodical surgery.

Cone-Beam Computed Tomography Applications in Dental Practice: A Literature Review

Fig 7b.A periodical image showing a compromised crown-to-root ratio.

Cone-Beam Computed Tomography Applications in Dental Practice: A Literature Review

Fig 7c.A CBCT image showing the absence of the buccal plate and a compromised palatal plate; this image indicates the teeth to be extracted and the grafting site before implant placement.

Cone-Beam Computed Tomography Applications in Dental Practice: A Literature Review

Fig 7d. A photograph showing the location of bone grafting. The least traumatic extractions were performed for teeth 7, 8, 9 and 10.

Cone-Beam Computed Tomography Applications in Dental Practice: A Literature Review

Fig 7e. A photograph shows the in-progress healing of the grafted sites intended for the future placement of implants.

The newest CBCT systems show higher resolution and lower exposure than previous systems, and the new systems are less expensive and more specific for dental use than their predecessors. The flat-panel detectors are less prone to beam hardening artifacts. CBCT also shows disadvantages such as susceptibility to motion artifacts, low contrast resolution, and limited internal soft-tissue visualization capability. Furthermore, due to the distortion of Hounsfield units, CBCT cannot be used for the estimation of bone density.

As far as the radiation dose of CBCT imaging is concerned, it is crucial that a radiation dose as low as reasonably achievable (alara) is respected. Although CBCT imaging will certainly improve patient care, dentists must possess the anatomical knowledge and the experience to interpret the scanned data accurately. Dentists must evaluate whether these imaging modalities add to their diagnostic knowledge and raise the standard of dental care or simply place the patient at a higher risk. Such evaluation requires continuous training, education for dentists and thorough research.

One of the most clinically useful aspects of CBCT imaging is the availability of highly sophisticated software that allows the large volumes of acquired data to be broken down, processed and reconstructed131. This ability makes data interpretation much more user-friendly, particularly if competent technical and educational training is provided to the dentists and technicians.

The increasing popularity of CBCT has resulted in the manufacture of a large number of CBCT units, numerous presentations at conferences and a significant increase in published articles. These factors have led to an uncontrolled and non-evidence-based reporting of radiation dose values that can be attributed to the limited technical knowledge of medical imaging devices among new users. To counter this uncontrolled exchange, the European Academy of Dental and Maxillofacial Radiology has developed guidelines outlining the basic principles for the use of CBCT in dental applications132; these guidelines are shown in Table 3.


Table 3. Basic principles on the use of CBCT in dental applications (from eadmft)


The majority of CBCT applications in the practice of dentistry are found in the specialties of OMFS, endodontics, implant dentistry, and orthodontics. CBCT examinations must not be performed unless they are necessary and unless the benefits clearly outweigh the risks. The images acquired using CBCT must undergo a thorough clinical evaluation of the entire image dataset (i.e., a radiological report should be completed) to maximize the clinical data obtained from these images.

Future research should focus on obtaining accurate data regarding the radiation doses of CBCT systems. These systems have a small detector size, and the field of view and scanned volume are somewhat limited. Due to these factors, ideal CBCT systems for orthodontic and orthognathic surgery are not yet available. CBCT applications in forensic dentistry and prosthodontics require further investigation.


1. Aboudara CA, Hatcher D, Nielsen IL, Miller A. A three-dimensional evaluation of the upper airway in adolescents. Orthod Craniofac Res. 2003;6 Suppl 1:173-5.

2. Almog DM, LaMar J, LaMar FR, LaMar F. Cone beam computerized tomography-based dental imaging for implant planning and surgical guidance, Part 1: Single implant in the mandibular molar region. J Oral Implantol. 2006;32(2):77-81.
3. Araki M, Kameoka S, Mastumoto N, Komiyama K. Usefulness of cone beam computed tomography for odontogenic myxoma. Dentomaxillofac Radiol. 2007 Oct;36(7):423-7.

4. Aranyarachkul P, Caruso J, Gantes B, Schulz E, Riggs M, Dus I, Yamada JM, Crigger M. Bone density assessments of dental implant sites: 2. Quantitative cone-beam computerized tomography. Int J Oral Maxillofac Implants. 2005 May-Jun;20(3):416-24.
5   5. Bart Vandenberghe, Reinhilde Jacobs, Hilde Bosmans. Modern dental imaging: a review of the current technology and clinical applications in dental practice. Eur Radiol DOI 10.1007/s00330-010-1836-1.
6   6. Bassam H. Reliability of Periapical Radiographs and Orthopantomograms in Detection of Tooth Root Protrusion in the Maxillary Sinus: Correlation Results with Cone Beam Computed Tomography. J Oral Maxillofac Res 2010 (Jan-Mar);1(1):e6.

7. Bianchi A, Muyldermans L, Di Martino M, Lancellotti L, Amadori S, Sarti A, Marchetti C. Facial soft tissue esthetic predictions: validation in craniomaxillofacial surgery with cone beam computed tomography data. J Oral Maxillofac Surg. 2010 Jul;68(7):1471-9.

8. Blessmann M, Pohlenz P, Blake FA, Lenard M, Schmelzle R, Heiland M. Validation of a new training tool for ultrasound as a diagnostic modality in suspected midfacial fractures. Int J Oral Maxillofac Surg. 2007 Jun;36(6):501-6. Epub 2007 Mar 21.
9. Cevidanes LH, Bailey LJ, Tucker GR Jr, Styner MA, Mol A, Phillips CL, Proffit WR, Turvey T. Superimposition of 3D cone-beam CT models of orthognathic surgery patients. Dentomaxillofac Radiol. 2005 Nov;34(6):369-75.
10. Cevidanes LH, Bailey LJ, Tucker SF, Styner MA, Mol A, Phillips CL, Proffit WR, Turvey T. Three-dimensional cone-beam computed tomography for assessment of mandibular changes after orthognathic surgery. Am J Orthod Dentofacial Orthop. 2007 Jan;131(1):44-50.

1   11. Cha JY, Mah J, Sinclair P. Incidental findings in the maxillofacial area with 3-dimensional cone-beam imaging. Am J Orthod Dentofacial Orthop. 2007 Jul;132(1):7-14.

12. Chiandussi S, Biasotto M, Dore F, Cavalli F, Cova MA, Di Lenarda R. Clinical and diagnostic imaging of bisphosphonate-associated osteonecrosis of the jaws. Dentomaxillofac Radiol. 2006 Jul;35(4):236-43.
13. Christiansen R, Kirkevang LL, Gotfredsen E, Wenzel A. Periapical radiography and cone beam computed tomography for assessment of the periapical bone defect 1 week and 12 months after root-end resection. Dentomaxillofac Radiol. 2009 Dec;38(8):531-6.

14. Closmann JJ, Schmidt BL. The use of cone beam computed tomography as an aid in evaluating and treatment planning for mandibular cancer. J Oral Maxillofac Surg. 2007 Apr;65(4):766-71.
15. Cohenca N, Simon JH, Mathur A, Malfaz JM. Clinical indications for digital imaging in dento-alveolar trauma. Part 2: root resorption. Dent Traumatol. 2007 Apr;23(2):105-13.
16. Cohenca N, Simon JH, Roges R, Morag Y, Malfaz JM. Clinical indications for digital imaging in dento-alveolar trauma. Part 1: traumatic injuries. Dent Traumatol. 2007 Apr;23(2):95-104.
17. Cotton TP, Geisler TM, Holden DT, Schwartz SA, Schindler WG. Endodontic applications of cone-beam volumetric tomography. J Endod. 2007 Sep;33(9):1121-32. Epub 2007 Jul 19.
18. Danforth RA, Peck J, Hall P. Cone beam volume tomography: an imaging option for diagnosis of complex mandibular third molar anatomical relationships. J Calif Dent Assoc. 2003 Nov;31(11):847-52.
19. de Paula-Silva FW, Santamaria M Jr, Leonardo MR, Consolaro A, da Silva LA. Cone-beam computerized tomographic, radiographic, and histologic evaluation of periapical repair in dogs’ post-endodontic treatment. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2009 Nov;108(5):796-805. Epub 2009 Sep 5.
20. de Paula-Silva FW, Wu MK, Leonardo MR, da Silva LA, Wesselink PR. Accuracy of periapical radiography and cone-beam computed tomography scans in diagnosing apical periodontitis using histopathological findings as a gold standard. J Endod. 2009 Jul;35(7):1009-12.
21. Dreiseidler T, Mischkowski RA, Neugebauer J, Ritter L, Zöller JE. Comparison of cone-beam imaging with orthopantomography and computerized tomography for assessment in presurgical implant dentistry. Int J Oral Maxillofac Implants. 2009 Mar-Apr;24(2):216-25.

22. Erickson M, Caruso JM, Leggitt L. Newtom QR-DVT 9000 imaging used to confirm a clinical diagnosis of iatrogenic mandibular nerve paresthesia. J Calif Dent Assoc. 2003 Nov;31(11):843-5.

23. Estrela C, Bueno MR, Azevedo BC, Azevedo JR, Pécora JD. A new periapical index based on cone beam computed tomography. J Endod. 2008 Nov;34(11):1325-31. Epub 2008 Sep 17.
24. Estrela C, Bueno MR, De Alencar AH, Mattar R, Valladares Neto J, Azevedo BC, De Araújo Estrela CR. Method to evaluate inflammatory root resorption by using cone beam computed tomography. J Endod. 2009 Nov;35(11):1491-7.
25. Estrela C, Bueno MR, Leles CR, Azevedo B, Azevedo JR. Accuracy of cone beam computed tomography and panoramic and periapical radiography for detection of apical periodontitis. J Endod. 2008 Mar;34(3):273-9. Epub 2008 Jan 31.

26. Farman AG, Scarfe WC. Development of imaging selection criteria and procedures should precede cephalometric assessment with cone-beam computed tomography. Am J Orthod Dentofacial Orthop. 2006 Aug;130(2):257-65.
2    27. Feldkamp LA, Davis LC, Kress JW. Practical cone-beam algorithm. J Opt Soc Am 1994: 1: 612–619.

28. Fortin T. Champleboux G.Bianchi S.Buatois H.Coudert J-L. Precision of transfer of preoperative planning fororal implants based on cone-beam CT-scan images through a robotic drilling machine – An in vitro study. Clinical Oral Implants Research Vol. 13 No. 6 pp 651-656.
29. Fullmer JM, Scarfe WC, Kushner GM, Alpert B, Farman AG. Cone beam computed tomographic findings in refractory chronic suppurative osteomyelitis of the mandible. Br J Oral Maxillofac Surg. 2007 Jul;45(5):364-71. Epub 2006 Nov 13.
30. Ganz SD. CT-derived model-based surgery for immediate loading of maxillary anterior implants. Pract Proced Aesthet Dent. 2007 Jun;19(5):311-8; quiz 320, 302.
31. Garcia de Paula-Silva FW, Hassan B, Bezerra da Silva LA, Leonardo MR, Wu MK. Outcome of root canal treatment in dogs determined by periapical radiography and cone-beam computed tomography scans. J Endod. 2009 May;35(5):723-6.
32. Garg AK. Dental implant imaging: TeraRecon’s Dental 3D Cone Beam Computed Tomography System. Dent Implantol Update. 2007 Jun;18(6):41-5.

33. Gracco A, Lombardo L, Cozzani M, Siciliani G. Quantitative evaluation with CBCT of palatal bone thickness in growing patients. Prog 34. Orthod. 2006;7(2):164-74.
Hamada Y, Kondoh T, Noguchi K, Iino M, Isono H, Ishii H, Mishima A, Kobayashi K, Seto K. Application of limited cone beam computed tomography to clinical assessment of alveolar bone grafting: a preliminary report. Cleft Palate Craniofac J. 2005 Mar;42(2):128-37.
35. Hassan B, Metska ME, Ozok AR, van der Stelt P, Wesselink PR. Comparison of five cone beam computed tomography systems for the detection of vertical root fractures. J Endod. 2010 Jan;36(1):126-9.
36. Hassan B, Metska ME, Ozok AR, van der Stelt P, Wesselink PR. Detection of vertical root fractures in endodontically treated teeth by a cone beam computed tomography scan. J Endod. 2009 May;35(5):719-22.
37. Hatcher DC, Dial C, Mayorga C. Cone beam CT for pre-surgical assessment of implant sites. J Calif Dent Assoc. 2003 Nov;31(11):825-33.
38. Heiland M, Pohlenz P, Blessmann M, Werle H, Fraederich M, Schmelzle R, Blake FA. Navigated implantation after microsurgical bone transfer using intraoperatively acquired cone-beam computed tomography data sets. Int J Oral Maxillofac Surg. 2008 Jan;37(1):70-5. Epub 2007 Sep 5.
39. Heiland M, Schmelzle R, Hebecker A, Schulze D. Intraoperative 3D imaging of the facial skeleton using the SIREMOBIL Iso-C3D. Dentomaxillofac Radiol. 2004 Mar;33(2):130-2.
40. Heiland M, Schulze D, Blake F, Schmelzle R. Intraoperative imaging of zygomaticomaxillary complex fractures using a 3D C-arm system. Int J Oral Maxillofac Surg. 2005 Jun;34(4):369-75.
41. Heiland M, Schulze D, Rother U, Schmelzle R. Postoperative imaging of zygomaticomaxillary complex fractures using digital volume tomography. J Oral Maxillofac Surg. 2004 Nov;62(11):1387-91.

42. Honda K, Bjørnland T. Image-guided puncture technique for the superior temporomandibular joint space: value of cone beam computed tomography (CBCT). Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2006 Sep;102(3):281-6. Epub 2006 Jun 30.
43. Honda K, Larheim TA, Johannessen S, Arai Y, Shinoda K, Westesson PL. Ortho cubic super-high resolution computed tomography: a new radiographic technique with application to the temporomandibular joint. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2001 Feb;91(2):239-43.
44. Honda K, Matumoto K, Kashima M, Takano Y, Kawashima S, Arai Y. Single air contrast arthrography for temporomandibular joint disorder using limited cone beam computed tomography for dental use. Dentomaxillofac Radiol. 2004 Jul;33(4):271-3.

45. Honda M, Uehara H, Uehara T, Honda K, Kawashima S, Honda K, Yonehara Y. Use of a replica graft tooth for evaluation before autotransplantation of a tooth. A CAD/CAM model produced using dental-cone-beam computed tomography. Int J Oral Maxillofac Surg. 2010 Jul 12.

4   46. Howerton WB Jr, Mora MA. Advancements in digital imaging: what is new and on the horizon? J Am Dent Assoc. 2008 Jun;139 Suppl:20S-24S.

47. Hua Y, Nackaerts O, Duyck J, Maes F, Jacobs R. Bone quality assessment based on cone beam computed tomography imaging. Clin Oral Implants Res. 2009 Aug;20(8):767-71. Epub 2009 May 27.
48. Ito K, Gomi Y, Sato S, Arai Y, Shinoda K. Clinical application of a new compact CT system to assess 3-D images for the preoperative treatment planning of implants in the posterior mandible A case report. Clin Oral Implants Res. 2001 Oct;12(5):539-42.

49. Ito K, Yoshinuma N, Goke E, Arai Y, Shinoda K. Clinical application of a new compact computed tomography system for evaluating the outcome of regenerative therapy: a case report. J Periodontol. 2001 May;72(5):696-702.
50. Kasaj A, Willershausen B. Digital volume tomography for diagnostics in periodontology. Int J Comput Dent. 2007 Apr;10(2):155-68.
51. Kijima N, Honda K, Kuroki Y, Sakabe J, Ejima K, Nakajima I. Relationship between patient characteristics, mandibular head morphology and thickness of the roof of the glenoid fossa in symptomatic temporomandibular joints. Dentomaxillofac Radiol. 2007 Jul;36(5):277-81.
52. Kim SH, Choi YS, Hwang EH, Chung KR, Kook YA, Nelson G. Surgical positioning of orthodontic mini-implants with guides fabricated on models replicated with cone-beam computed tomography. Am J Orthod Dentofacial Orthop. 2007 Apr;131(4 Suppl):S82-9.
53. Kim SH, Kang JM, Choi B, Nelson G . Clinical application of a stereolithographic surgical guide for simple positioning of orthodontic mini-implants. World J Orthod. 2008 Winter;9(4):371-82.

54. Kim TS, Caruso JM, Christensen H, Torabinejad M. A comparison of cone-beam computed tomography and direct measurement in the examination of the mandibular canal and adjacent structures. J Endod. 2010 Jul;36(7):1191-4.

55. King KS, Lam EW, Faulkner MG, Heo G, Major PW. Predictive factors of vertical bone depth in the paramedian palate of adolescents. Angle Orthod. 2006 Sep;76(5):745-51.

56. Korbmacher H, Kahl-Nieke B, Schöllchen M, Heiland M. Value of two cone-beam computed tomography systems from an orthodontic point of view. J Orofac Orthop. 2007 Jul;68(4):278-89.
57. Kumar V, Pass B, Guttenberg SA, Ludlow J, Emery RW, Tyndall DA, Padilla RJ. Bisphosphonate-related osteonecrosis of the jaws: a report of three cases demonstrating variability in outcomes and morbidity. J Am Dent Assoc. 2007 May;138(5):602-9.

58. Lagravère MO, Hansen L, Harzer W, Major PW. Plane orientation for standardization in 3-dimensional cephalometric analysis with computerized tomography imaging. Am J Orthod Dentofacial Orthop. 2006 May;129(5):601-4.
59. Lagravère MO, Major PW. Proposed reference point for 3-dimensional cephalometric analysis with cone-beam computerized tomography. Am J Orthod Dentofacial Orthop. 2005 Nov;128(5):657-60.

60. Liedke GS, da Silveira HE, da Silveira HL, Dutra V, de Figueiredo JA. Influence of voxel size in the diagnostic ability of cone beam tomography to evaluate simulated external root resorption. J Endod. 2009 Feb;35(2):233-5.
61. Liu DG, Zhang WL, Zhang ZY, Wu YT, Ma XC. Localization of impacted maxillary canines and observation of adjacent incisor resorption with cone-beam computed tomography. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2008 Jan;105(1):91-8. Epub 2007 May 15.
62. Liu DG, Zhang WL, Zhang ZY, Wu YT, Ma XC. Three-dimensional evaluations of supernumerary teeth using cone-beam computed tomography for 487 cases. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2007 Mar;103(3):403-11. Epub 2006 Aug 4.
63. Lofthag-Hansen S, Gröndahl K, Ekestubbe A. Cone-beam CT for preoperative implant planning in the posterior mandible: visibility of anatomic landmarks. Clin Implant Dent Relat Res. 2009 Sep;11(3):246-55. Epub 2008 Sep 9.
64. Lofthag-Hansen S, Huumonen S, Gröndahl K, Gröndahl HG. Limited cone-beam CT and intraoral radiography for the diagnosis of periapical pathology. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2007 Jan;103(1):114-9. Epub 2006 Apr 24.
65. Macleod I, Heath N. Cone-beam computed tomography (CBCT) in dental practice. Dent Update. 2008 Nov;35(9):590-2, 594-8.
66. Mah J, Enciso R, Jorgensen M. Management of impacted cuspids using 3-D volumetric imaging. J Calif Dent Assoc. 2003 Nov;31(11):835-41.
67. Marcus F. Abboud. Cone Beam CT Based Guided Implant Placement–Benefits and Risks. Oral Abstract Session 5, AAOMS • 2009.

68. Matsumoto K, Honda K, Sawada K, Tomita T, Araki M, Kakehashi Y. The thickness of the roof of the glenoid fossa in the temporomandibular joint: relationship to the MRI findings. Dentomaxillofac Radiol. 2006 Sep;35(5):357-64.

69. Maverna R, Gracco A. Different diagnostic tools for the localization of impacted maxillary canines: clinical considerations. Prog Orthod. 2007;8(1):28-44.
70. Michetti J, Maret D, Mallet JP, Diemer F. Validation of cone beam computed tomography as a tool to explore root canal anatomy. J Endod. 2010 Jul;36(7):1187-90. Epub 2010 May 13.

71. Misch KA, Yi ES, Sarment DP. Accuracy of cone beam computed tomography for periodontal defect measurements. J Periodontol. 2006 Jul;77(7):1261-6.

72. Mischkowski RA, Zinser MJ, Ritter L, Neugebauer J, Keeve E, Zöller JE. Intraoperative navigation in the maxillofacial area based on 3D imaging obtained by a cone-beam device. Int J Oral Maxillofac Surg. 2007 Aug;36(8):687-94. Epub 2007 Jun 7.
73. Miyamoto J, Nagasao T, Nakajima T, Ogata H. Evaluation of cleft lip bony depression of piriform margin and nasal deformity with cone beam computed tomography: “retruded-like” appearance and anteroposterior position of the alar base. Plast Reconstr Surg. 2007 Nov;120(6):1612-20.
74. Moore J, Fitz-Walter P, Parashos P. A micro-computed tomographic evaluation of apical root canal preparation using three instrumentation techniques. Int Endod J. 2009 Dec;42(12):1057-64.

75. Müssig E, Wörtche R, Lux CJ. Indications for digital volume tomography in orthodontics. J Orofac Orthop. 2005 May;66(3):241-9.

76. Nagaraja S, Sreenivasa Murthy BV. CT evaluation of canal preparation using rotary and hand NI-TI instruments: An in vitro study. J Conserv Dent. 2010 Jan;13(1):16-22.
77. Nair MK, Nair UP. Digital and advanced imaging in endodontics: a review. J Endod. 2007 Jan;33(1):1-6.

78. Naitoh M, Hirukawa A, Katsumata A, Ariji E. Evaluation of voxel values in mandibular cancellous bone: relationship between cone-beam computed tomography and multislice helical computed tomography. Clin Oral Implants Res. 2009 May;20(5):503-6. Epub 2009 Feb 25.
79. Naitoh M, Yamada S, Noguchi T, Ariji E, Nagao J, Mori K, Kitasaka T, Suenaga Y. Three-dimensional display with quantitative analysis in alveolar bone resorption using cone-beam computerized tomography for dental use: a preliminary study. Int J Periodontics Restorative Dent. 2006 Dec;26(6):607-12.

80. Nakagawa Y, Ishii H, Nomura Y, Watanabe NY, Hoshiba D, Kobayashi K, Ishibashi K. Third molar position: reliability of panoramic radiography. J Oral Maxillofac Surg. 2007 Jul;65(7):1303-8.
81. Nakagawa Y, Kobayashi K, Ishii H, Mishima A, Ishii H, Asada K, Ishibashi K. Preoperative application of limited cone beam computerized tomography as an assessment tool before minor oral surgery. Int J Oral Maxillofac Surg. 2002 Jun;31(3):322-6.

82. Nakajima A, Sameshima GT, Arai Y, Homme Y, Shimizu N, Dougherty H Sr. Two- and three-dimensional orthodontic imaging using limited cone beam-computed tomography. Angle Orthod. 2005 Nov;75(6):895-903.

83. Nakata K, Naitoh M, Izumi M, Inamoto K, Ariji E, Nakamura H. Effectiveness of dental computed tomography in diagnostic imaging of periradicular lesion of each root of a multirooted tooth: a case report. J Endod. 2006 Jun;32(6):583-7.
84. Nesari R, Rossman LE, Kratchman SI. Cone-beam computed tomography in endodontics: are we there yet? Compend Contin Educ Dent. 2009 Jul-Aug;30(6):312-4, 316, 318 passim; quiz 324, 334.
85. Nickenig HJ, Eitner S. Reliability of implant placement after virtual planning of implant positions using cone beam CT data and surgical (guide) templates. J Craniomaxillofac Surg. 2007 Jun-Jul;35(4-5):207-11. Epub 2007 Jun 18.
86. Nickenig HJ, Wichmann M, Hamel J, Schlegel KA, Eitner S. Evaluation of the difference in accuracy between implant placement by virtual planning data and surgical guide templates versus the conventional free-hand method – a combined in vivo – in vitro technique using cone-beam CT (Part II). J Craniomaxillofac Surg. 2009 Nov 23. [Epub ahead of print].
87. Ogawa T, Enciso R, Memon A, Mah JK, Clark GT. Evaluation of 3D airway imaging of obstructive sleep apnea with cone-beam computed tomography. Stud Health Technol Inform. 2005;111:365-8.
88. Ogawa T, Enciso R, Shintaku WH, Clark GT. Evaluation of cross-section airway configuration of obstructive sleep apnea. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2007 Jan;103(1):102-8. Epub 2006 Sep 1.
89. Ozer SY. Detection of vertical root fractures of different thicknesses in endodontically enlarged teeth by cone beam computed tomography versus digital radiography. J Endod. 2010 Jul;36(7):1245-9. Epub 2010 Apr 24.

9   90. Palomo JM, Kau CH, Palomo LB, Hans MG. Three-dimensional cone beam computerized tomography in dentistry. Dent Today. 2006 Nov;25(11):130, 132-5.

91. Patel S, Dawood A. The use of cone beam computed tomography in the management of external cervical resorption lesions. Int Endod J. 2007 Sep;40(9):730-7. Epub 2007 Jun 29.
92. Patel S. New dimensions in endodontic imaging: Part 2. Cone beam computed tomography. Int Endod J. 2009 Jun;42(6):463-75. Epub 2009 Mar 2.
93. Pawelzik J, Cohnen M, Willers R, Becker J. A comparison of conventional panoramic radiographs with volumetric computed tomography images in the preoperative assessment of impacted mandibular third molars. J Oral Maxillofac Surg. 2002 Sep;60(9):979-84.

94. Peck JL, Sameshima GT, Miller A, Worth P, Hatcher DC. Mesiodistal root angulation using panoramic and cone beam CT. Angle Orthod. 2007 Mar;77(2):206-13.
95. Poggio PM, Incorvati C, Velo S, Carano A. “Safe zones”: a guide for miniscrew positioning in the maxillary and mandibular arch. Angle Orthod. 2006 Mar;76(2):191-7.

96. Pohlenz P, Blessmann M, Blake F, Heinrich S, Schmelzle R, Heiland M. Clinical indications and perspectives for intraoperative cone-beam computed tomography in oral and maxillofacial surgery. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2007 Mar;103(3):412-7. Epub 2006 Sep 26.
97. Rigolone M, Pasqualini D, Bianchi L, Berutti E, Bianchi SD. Vestibular surgical access to the palatine root of the superior first molar: “low-dose cone-beam” CT analysis of the pathway and its anatomic variations. J Endod. 2003 Nov;29(11):773-5.
98. Rouas P, Nancy J, Bar D. Identification of double mandibular canals: literature review and three case reports with CT scans and cone beam CT. Dentomaxillofac Radiol. 2007 Jan;36(1):34-8.

99. Rungcharassaeng K, Caruso JM, Kan JY, Kim J, Taylor G. Factors affecting buccal bone changes of maxillary posterior teeth after rapid maxillary expansion. Am J Orthod Dentofacial Orthop. 2007 Oct;132(4):428.e1-8.
100. Sakabe R, Sakabe J, Kuroki Y, Nakajima I, Kijima N, Honda K. Evaluation of temporomandibular disorders in children using limited cone-beam computed tomography: a case report. J Clin Pediatr Dent. 2006 Fall;31(1):14-6.
101. Sato S, Arai Y, Shinoda K, Ito K. Clinical application of a new cone-beam computerized tomography system to assess multiple two-dimensional images for the preoperative treatment planning of maxillary implants: case reports Quintessence Int. 2004 Jul-Aug;35(7):525-8.
102. Schulze D, Blessmann M, Pohlenz P, Wagner KW, Heiland M. Diagnostic criteria for the detection of mandibular osteomyelitis using cone-beam computed tomography. Dentomaxillofac Radiol. 2006 Jul;35(4):232-5.
103. SCOTT D. GANZ, CT Scan Technology An Evolving Tool for Avoiding Complications and Achieving Predictable Implant Placement and Restoration. INTERNATIONAL MAGAZINE OF ORAL IMPLANTOLOGY 1/2001.
104. Sforza NM, Franchini F, Lamma A, Botticelli S, Ghigi G. Accuracy of computerized tomography for the evaluation of mandibular sites prior to implant placement. Int J Periodontics Restorative Dent. 2007 Dec;27(6):589-95.
105. Shi H, Scarfe WC, Farman AG. Three-dimensional reconstruction of individual cervical vertebrae from cone-beam computed-tomography images. Am J Orthod Dentofacial Orthop. 2007 Mar;131(3):426-32.
106. Simon JH, Enciso R, Malfaz JM, Roges R, Bailey-Perry M, Patel A Differential diagnosis of large periapical lesions using cone-beam computed tomography measurements and biopsy. J Endod. 2006 Sep;32(9):833-7. Epub 2006 Jul 7.
107. Siraci E, Cem Gungor H, Taner B, Cehreli ZC. Buccal and palatal talon cusps with pulp extensions on a supernumerary primary tooth. Dentomaxillofac Radiol. 2006 Nov;35(6):469-72.
108. Smith MH, Brooks SL, Eldevik OP, Helman JI. Anterior mandibular lingual salivary gland defect: a report of a case diagnosed with cone-beam computed tomography and magnetic resonance imaging. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2007 May;103(5):e71-8. Epub 2007 Feb 27.
109. Smith TB. Cone-beam volumetric imaging in dental, oral, and maxillofacial medicine: fundamentals, diagnostics, and treatment planning. J Prosthodont. 2010 Jul;19(5):419.
110. Song Y., Jun S., Kwon J. Correlation between bone quality evaluation by cone-beam computerized tomography and implant primary stability. Int. Journal of Oral and Maxillofacial Implants Vol. 24 No. 1 pp 59-64.
111. Swennen GR, Mollemans W, De Clercq C, Abeloos J, Lamoral P, Lippens F, Neyt N, Casselman J, Schutyser F. A cone-beam computed tomography triple scan procedure to obtain a three-dimensional augmented virtual skull model appropriate for orthognathic surgery planning. J Craniofac Surg. 2009 Mar;20(2):297-307.
112. Swennen GR, Mommaerts MY, Abeloos J, De Clercq C, Lamoral P, Neyt N, Casselman J, Schutyser F. A cone-beam CT based technique to augment the 3D virtual skull model with a detailed dental surface. Int J Oral Maxillofac Surg. 2009 Jan;38(1):48-57. Epub 2008 Dec 31.
113. Tantanapornkul W, Okouchi K, Fujiwara Y, Yamashiro M, Maruoka Y, Ohbayashi N, Kurabayashi T. A comparative study of cone-beam computed tomography and conventional panoramic radiography in assessing the topographic relationship between the mandibular canal and impacted third molars. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2007 Feb;103(2):253-9. Epub 2006 Sep 1.
114. Terakado M, Hashimoto K, Arai Y, Honda M, Sekiwa T, Sato H. Diagnostic imaging with newly developed ortho cubic super-high resolution computed tomography (Ortho-CT). Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2000 Apr;89(4):509-18.
115. Tetradis S, Anstey P, Graff-Radford S. Cone beam computed tomography in the diagnosis of dental disease. J Calif Dent Assoc. 2010 Jan;38(1):27-32.
116. Tischler M. In-office cone beam computerized tomography: technology review and clinical examples. Dent Today. 2008 Jun;27(6):102, 104, 106.
117. Tsiklakis K, Syriopoulos K, Stamatakis HC. Radiographic examination of the temporomandibular joint using cone beam computed tomography. Dentomaxillofac Radiol. 2004 May;33(3):196-201.
118. Tsurumachi T, Honda K. A new cone beam computerized tomography system for use in endodontic surgery. Int Endod J. 2007 Mar;40(3):224-32.
119. Tu MG, Huang HL, Hsue SS, Hsu JT, Chen SY, Jou MJ, Tsai CC. Detection of permanent three-rooted mandibular first molars by cone-beam computed tomography imaging in Taiwanese individuals. J Endod. 2009 Apr;35(4):503-7.
120. Tyndall DA, Rathore S. Cone-beam CT diagnostic applications: caries, periodontal bone assessment, and endodontic applications. Dent Clin North Am. 2008 Oct;52(4):825-41, vii.
121. Van Assche N, van Steenberghe D, Guerrero ME, Hirsch E, Schutyser F, Quirynen M, Jacobs R. Accuracy of implant placement based on pre-surgical planning of three-dimensional cone-beam images: a pilot study. J Clin Periodontol. 2007 Sep;34(9):816-21.
122. Vandenberghe B, Jacobs R, Yang J. Diagnostic validity (or acuity) of 2D CCD versus 3D CBCT-images for assessing periodontal breakdown. Oral Surg Oral Med Oral Pathol Oral Radiol Endod. 2007 Sep;104(3):395-401. Epub 2007 Jul 5.
123. Walker L, Enciso R, Mah J. Three-dimensional localization of maxillary canines with cone-beam computed tomography. Am J Orthod Dentofacial Orthop. 2005 Oct;128(4):418-23.
124. William E. Harrell, Jr. Three-dimensional diagnosis & treatment planning: The use of 3D facial imaging and 3D cone beam CT in orthodontics and dentistry. Australasian Dental Practice July/August 2007.
125. Wörtche R, Hassfeld S, Lux CJ, Müssig E, Hensley FW, Krempien R, Hofele C. Clinical application of cone beam digital volume tomography in children with cleft lip and palate. Dentomaxillofac Radiol. 2006 Mar;35(2):88-94.
126. Yajima A, Otonari-Yamamoto M, Sano T, Hayakawa Y, Otonari T, Tanabe K, Wakoh M, Mizuta S, Yonezu H, Nakagawa K, Yajima Y. Cone-beam CT (CB Throne) applied to dentomaxillofacial region. Bull Tokyo Dent Coll. 2006 Aug;47(3):133-41.
127. Yang F, Jacobs R, Willems G. Dental age estimation through volume matching of teeth imaged by cone-beam CT. Forensic Sci Int. 2006 May 15;159 Suppl 1:S78-83. Epub 2006 Mar 23.
128. Zizelmann C, Gellrich NC, Metzger MC, Schoen R, Schmelzeisen R, Schramm A. Computer-assisted reconstruction of orbital floor based on cone beam tomography. Br J Oral Maxillofac Surg. 2007 Jan;45(1):79-80. Epub 2005 Aug 10.
129. Arai Y, Tammisalo E, Iwai K, Hashimoto K, Shinoda K. Development of a compact computed tomographic apparatus for dental use. DentomaxillofacRadiol 1999: 28: 245–248.
130. W. De Vos, J. Casselman, G.R.J. Cone-beam computerized tomography (CBCT) imaging of the oral and maxillofacial region: A systematic review of the literature. Int. J. Oral Maxillofac. Surg. 2009; 38: 609–625
131. Patel S, Dawood A, Ford TP, Whaites E. The potential applications of cone beam computed tomography in the management of endodontic problems. Int Endod J 2007: 40: 818–830.
132. Horner K, Islam M, Flygare L, Tsiklakis T, Whaites E. Basic Principles for Use of Dental Cone Beam CT: Consensus Guidelines of the European Academy of Dental and Maxillofacial Radiology. Dentomaxillofac Radiol 2009; 38: 187-195.
133. Senem Yiğit Özer, DDS, PhD. Detection of Vertical Root Fractures of Different Thicknesses in Endodontically Enlarged Teeth by Cone Beam Computed Tomography versus Digital Radiography. Journal of Endodontics Volume 36, Issue 7 , Pages 1245-1249, July 2010

by Dr. Mohammed A. Alshehri, Dr. Hadi Alamri & Dr. Mazen Alshalhoob, Saudi Arabia

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