Title
Author
DOI
Article Type
Special Issue
Volume
Issue
Refining occlusion with muscle balance to enhance long-term orthodontic stability
149 Botany Street, Randwick NSW 2031, Sydney, Australia
DOI: 10.17796/jcpd.29.2.lk435w70505t1668 Vol.29,Issue 2,April 2005 pp.93-98
Published: 01 April 2005
The primary objective of orthodontic treatment is the movement of teeth into a more ideal relationship, not only for aesthetic, but also for functional considerations. Another very important objective, often not given enough consideration, is the need to finish the case with the muscles of mastication in equilibrium. If muscle balance is not achieved, an endless procession of retainers is required for retention. In simple terms, if the occlusal forces in maximum intercuspation are unevenly distributed around the arch, tooth movement will most likely occur.Today, however, it is possible to simultaneously and precisely measure the relative force of each occlusal contact, the timing of the occlusal contacts and the specific muscle contraction levels.This tech-nological breakthrough represents a paradigm shift in thinking and may improve orthodontic stability.
Derek Mahony. Refining occlusion with muscle balance to enhance long-term orthodontic stability. Journal of Clinical Pediatric Dentistry. 2005. 29(2);93-98.
1. Thompson JR. Concepts regarding the function of the stomato-gnathic system. JADA 48: 626-637, 1954.
2. Gervais RO, Fitzsimmons GW, Thomas NR. Masseter and tempo-ralis electromyographic activity in asymptomatic, subclinical, and temporomandibular joint dysfunction patients. Cranio 7: 52-7, 1989.
3. Glaros AG, McGlynn FD, Kapel L. Sensitivity, specificity, and the predictive value of facial electromyographic data in diag-nosing myofascial pain-dysfunction. Cranio 7: 189-93, 1989.
4. Glaros AG, Glass EG, Brockman D. Electromyographic data from TMD patients with myofascial pain and from matched con-trol subjects: evidence for statistical, not clinical, significance. J Orofac Pain 11: 125-9, 1997.
5. Kamyszek G, Ketcham R, Garcia R Jr, Radke J. Electromyographic evidence of reduced muscle activity when ULF-TENS is applied to the Vth and VIIth cranial nerves. Cranio 19: 162-8, 2001.
6. Belser UC, Hannam AG. The influence of altered working-side occlusal guidance on masticatory muscles and related jaw move-ment. J Prosthet Dent 53: 406-13, 1985.
7. McCarroll RS, Naeije M, Hansson TL. Balance in masticatory muscle activity during natural chewing and submaximal clench-ing. J Oral Rehabil 16: 441-6, 1989.
8. Visser A, McCarroll RS, Oosting J, Naeije M. Masticatory electromyographic activity in healthy young adults and myo-genous craniomandibular disorder patients. J Oral Rehabil 21:
67- 76, 1994.
9. Christensen LV, Rassouli NM. Experimental occlusal inter-ferences. Part I. A review. J Oral Rehabil 22: 515-20, 1995.
10. Christensen LV, Rassouli NM. Experimental occlusal inter-ferences. Part II. Masseteric EMG responses to an intercuspal interference. J Oral Rehabil 22: 521-31, 1995.
11. Borromeo GL, Suvinen TI, Reade PC. A comparison of the effects of group function and canine guidance interocclusal device on masseter muscle electromyographic activity in normal subjects. J Prosthet Dent 74: 174-80, 1995.
12. Christensen LV, Mohamed SE. Bilateral masseteric contractile activity in unilateral gum chewing: differential calculus. J Oral Rehabil 23: 638-47, 1996.
13. Saifuddin M, Miyamoto K, Ueda HM, Shikata N, Tanne K. An electromyographic evaluation of the bilateral symmetry and nature of masticatory muscle activity in jaw deformity patients during normal daily activities. J Oral Rehabil 30: 578-86, 2003.
14. McCarroll RS, Naeije M, Kim YK, Hansson TL. Short-term effect of a stabilization splint on the asymmetry of submaximal masticatory muscle activity. J Oral Rehabil 16: 171-6, 1989.
15. Naeije M, Hansson TL. Short-term effect of the stabilization appliance on masticatory muscle activity in myogenous cranio-mandibular disorder patients. J Craniomandib Disord 5: 245-50, 1991.
16. Lobbezoo F, van der Glas HW, van Kampen FM, Bosman F. The effect of an occlusal stabilization splint and the mode of visual feedback on the activity balance between jaw-elevator muscles during isometric contraction. J Dent Res 72: 876-82, 1993, Erratum in: J Dent Res 72:1264, 1993.
17. Visser A, Naeije M, Hansson TL. The temporal/masseter co-contraction: an electromyographic and clinical evaluation of short-term stabilization splint therapy in myogenous CMD patients. J Oral Rehabil 22: 387-9, 1995.
18. al-Quran FA, Lyons MF.The immediate effect of hard and soft splints on the EMG activity of the masseter and temporalis muscles. J Oral Rehabil 26: 559-63, 1999.
19. Ferrario VF, Sforza C, Tartaglia GM, Dellavia C. Immediate effect of a stabilization splint on masticatory muscle activity in temporomandibular disorder patients. J Oral Rehabil 29: 810-5, 2002.
20. Roark AL, Glaros AG, O’Mahony AM. Effects of interocclusal appliances on EMG activity during parafunctional tooth contact. J Oral Rehabil 30: 573-7, 2003.
21. Maness WL, Podoloff R. Distribution of occlusal contacts in maximum intercuspation. J Prosthet Dent 62: 238-42, 1989.
22. Maness WL. Laboratory comparison of three occlusal registra-tion methods for identification of induced interceptive contacts. J Prosthet Dent 65: 483-7, 1991.
23. Reza Moini M, Neff PA. Reproducibility of occlusal contacts utiliz-ing a computerized instrument. Quintessence Int 22: 357-60, 1991.
24. Mizui M, Nabeshima F, Tosa J, Tanaka M, Kawazoe T. Quantitative analysis of occlusal balance in intercuspal position using the T-Scan system. Int J Prosthodont 7: 62-71, 1994.
25. Gonzalez Sequeros O, Garrido Garcia VC, Garcia Cartagena A. Study of occlusal contact variability within individuals in a posi-tion of maximum intercuspation using the T-SCAN system. J Oral Rehabil 24: 287-90, 1997.
26. Garcia Cartagena A, Gonzalez Sequeros O, Garrido Garcia VC. Analysis of two methods for occlusal contact registration with the T-Scan system. J Oral Rehabil 24: 426-32, 1997.
27. Suda S, Matsugishi K, Seki Y, Sakurai K, Suzuki T, Morita S, Hanada K, Hara K. A multiparametric analysis of occlusal and periodontal jaw reflex characteristics in young adults with nor-mal occlusion. J Oral Rehabil 24: 610-3, 1997.
28. Garrido Garcia VC, Garcia Cartagena A, Gonzalez Sequeros O. Evaluation of occlusal contacts in maximum intercuspation using the T-Scan system. J Oral Rehabil 24: 899-903, 1997.
29. Kirveskari P. Assessment of occlusal stability by measuring con-tact time and centric slide. J Oral Rehabil 26: 763-6, 1999.
30. Kerstein RB. Improving the delivery of a fixed bridge. Dent Today 18: 82-4, 86-7, 1999.
31. Suda S, MacHida N, Momose M, Yamaki M, Seki Y, Yoshie H, Hanada K, Hara K. A multiparametric analysis of occlusal and periodontal jaw reflex characteristics in adult skeletal mandibu-lar protrusion before and after orthognathic surgery. J Oral Rehabil 26: 686-90, 1999.
32. Saracoglu A, Ozpinar B. In vivo and in vitro evaluation of occlusal indicator sensitivity. J Prosthet Dent. 2002 Nov; 88(5):522-6. Comment in: J Prosthet Dent 90:310; author reply 310- 1, 2003.
33. Kerstein RB, Wright NR. Electromyographic and computer analyses of patients suffering from chronic myofascial pain-dys-function syndrome: before and after treatment with immediate complete anterior guidance development. J Prosthet Dent 66: 677- 86, 1991, Comment in: J Prosthet Dent 70: 99-100,1993
34. Hidaka O, Iwasaki M, Saito M, Morimoto T. Influence of clench-ing intensity on bite force balance, occlusal contact area, and average bite pressure. J Dent Res 78: 1336-44, 1999.
35. Kerstein RB. Combining technologies: A computerized occlusal system synchronized with a computerized electromyograhic system. Cranio 22: 96-109, 2004.
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