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Mechanika

Mechanika
89 (2/17), DOI: 10.7862/rm.2017.13

EFFECT OF HYRAX SCREW LOCALIZATION ON CRANIUM RESPONSE DURING RAPID MAXILLARY EXPANSION

Sergei BOSIAKOV, Anastasiya VINAKURAVA, Iryna SLAVASHEVICH, Dmitri GRICHANYUK, Feliks STACHOWICZ

DOI: 10.7862/rm.2017.13

Abstract

Rapid maxillary expansion is employed for the treatment of cross-bite and deficiency of transversal dimension of the maxilla in patients with and without cleft of palate and lip. The aim of this study is the finite-element analysis of stresses and displacements of skull, with and without unilateral cleft, after application of the HYRAX orthodontic device. Three different constructions of the orthodontic Hyrax device with different positions of the screw - in the occlusal horizontal plane, near occlusal horizontal plane and near the palate are considered. Application of the orthodontic device corresponds to the rotation of the screw on one-quarter turn. It is established that the screw position significantly affects the stress patterns in skull and displacements of the cranium with and without unilateral palate cleft. Depending on the construction of the orthodontic appliance, the maxilla halves in the transversal plane are unfolded or the whole skull is entirely rotated in the sagittal plane. The obtained results can be used for designing of orthodontic appliances with the Hyrax screw, as well as for planning of osteotomies during the surgical assistance of the rapid maxillary expansion.

Full text (pdf)

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About this Article

TITLE:
EFFECT OF HYRAX SCREW LOCALIZATION ON CRANIUM RESPONSE DURING RAPID MAXILLARY EXPANSION

AUTHORS:
Sergei BOSIAKOV (1)
Anastasiya VINAKURAVA (2)
Iryna SLAVASHEVICH (3)
Dmitri GRICHANYUK (4)
Feliks STACHOWICZ (5)

AUTHORS AFFILIATIONS:
(1) Belausian State University
(2) Rzeszow University of Technology
(3) Belausian State University
(4) Belarusian Medical Academy of Postgraduate Education
(5) Rzeszow University of Technology

JOURNAL:
Mechanika
89 (2/17)

KEY WORDS AND PHRASES:
rapid maxillary expansion, intact skull, palate cleft, finite element method, HYRAX device, stress-strain state

FULL TEXT:
http://doi.prz.edu.pl/pl/pdf/mechanika/208

DOI:
10.7862/rm.2017.13

URL:
http://dx.doi.org/10.7862/rm.2017.13

RECEIVED:
2017-01-12

ACCEPTED:
2017-03-17

COPYRIGHT:
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