Adapting the vertical position of implants with a conical connection in relation to soft tissue thickness prevents early implant surface exposure: A 2‐year prospective intra‐subject comparison

Aim To evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical implant position in relation to the soft tissue thickness. Materials and Methods Twenty‐five patients received two non‐splinted implants...

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Published inJournal of clinical periodontology Vol. 45; no. 5; pp. 605 - 612
Main Authors Vervaeke, Stijn, Matthys, Carine, Nassar, Rima, Christiaens, Veronique, Cosyn, Jan, De Bruyn, Hugo
Format Journal Article
LanguageEnglish
Published United States Blackwell Publishing Ltd 01.05.2018
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Abstract Aim To evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical implant position in relation to the soft tissue thickness. Materials and Methods Twenty‐five patients received two non‐splinted implants supporting an overdenture in the mandible. Soft tissue thickness was measured using bone sounding and ultrasonically. One implant was installed equicrestally (control), and the vertical position of the second implant was adapted to the site‐specific soft tissue thickness (test). Crestal bone levels were determined on digital peri‐apical radiographs and compared with baseline (implant placement). Results Twenty‐five patients were consecutively treated. No implants failed during the follow‐up. A significant correlation was observed between soft tissue thickness and bone level alterations after 6 months (ultrasound ICC = 0.610; bone sounding ICC = 0.641) with inferior bone levels for equicrestal implants when thin tissues are present. Subcrestal implants showed significantly better bone levels after 6‐month (n = 24, 0.04 mm versus 0.72 mm; p < .001), 1‐year (n = 24, 0.03 mm versus 0.77 mm; p < .001) and 2‐year follow‐up (n = 24, 0.04 mm versus 0.73 mm; p < .001). Conclusion Initial bone remodelling was affected by soft tissue thickness. Anticipating biologic width re‐establishment by adapting the vertical position of the implant seemed highly successful to avoid implant surface exposure.
AbstractList AimTo evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical implant position in relation to the soft tissue thickness.Materials and MethodsTwenty‐five patients received two non‐splinted implants supporting an overdenture in the mandible. Soft tissue thickness was measured using bone sounding and ultrasonically. One implant was installed equicrestally (control), and the vertical position of the second implant was adapted to the site‐specific soft tissue thickness (test). Crestal bone levels were determined on digital peri‐apical radiographs and compared with baseline (implant placement).ResultsTwenty‐five patients were consecutively treated. No implants failed during the follow‐up. A significant correlation was observed between soft tissue thickness and bone level alterations after 6 months (ultrasound ICC = 0.610; bone sounding ICC = 0.641) with inferior bone levels for equicrestal implants when thin tissues are present. Subcrestal implants showed significantly better bone levels after 6‐month (n = 24, 0.04 mm versus 0.72 mm; p < .001), 1‐year (n = 24, 0.03 mm versus 0.77 mm; p < .001) and 2‐year follow‐up (n = 24, 0.04 mm versus 0.73 mm; p < .001).ConclusionInitial bone remodelling was affected by soft tissue thickness. Anticipating biologic width re‐establishment by adapting the vertical position of the implant seemed highly successful to avoid implant surface exposure.
To evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical implant position in relation to the soft tissue thickness.AIMTo evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical implant position in relation to the soft tissue thickness.Twenty-five patients received two non-splinted implants supporting an overdenture in the mandible. Soft tissue thickness was measured using bone sounding and ultrasonically. One implant was installed equicrestally (control), and the vertical position of the second implant was adapted to the site-specific soft tissue thickness (test). Crestal bone levels were determined on digital peri-apical radiographs and compared with baseline (implant placement).MATERIALS AND METHODSTwenty-five patients received two non-splinted implants supporting an overdenture in the mandible. Soft tissue thickness was measured using bone sounding and ultrasonically. One implant was installed equicrestally (control), and the vertical position of the second implant was adapted to the site-specific soft tissue thickness (test). Crestal bone levels were determined on digital peri-apical radiographs and compared with baseline (implant placement).Twenty-five patients were consecutively treated. No implants failed during the follow-up. A significant correlation was observed between soft tissue thickness and bone level alterations after 6 months (ultrasound ICC = 0.610; bone sounding ICC = 0.641) with inferior bone levels for equicrestal implants when thin tissues are present. Subcrestal implants showed significantly better bone levels after 6-month (n = 24, 0.04 mm versus 0.72 mm; p < .001), 1-year (n = 24, 0.03 mm versus 0.77 mm; p < .001) and 2-year follow-up (n = 24, 0.04 mm versus 0.73 mm; p < .001).RESULTSTwenty-five patients were consecutively treated. No implants failed during the follow-up. A significant correlation was observed between soft tissue thickness and bone level alterations after 6 months (ultrasound ICC = 0.610; bone sounding ICC = 0.641) with inferior bone levels for equicrestal implants when thin tissues are present. Subcrestal implants showed significantly better bone levels after 6-month (n = 24, 0.04 mm versus 0.72 mm; p < .001), 1-year (n = 24, 0.03 mm versus 0.77 mm; p < .001) and 2-year follow-up (n = 24, 0.04 mm versus 0.73 mm; p < .001).Initial bone remodelling was affected by soft tissue thickness. Anticipating biologic width re-establishment by adapting the vertical position of the implant seemed highly successful to avoid implant surface exposure.CONCLUSIONInitial bone remodelling was affected by soft tissue thickness. Anticipating biologic width re-establishment by adapting the vertical position of the implant seemed highly successful to avoid implant surface exposure.
Aim To evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical implant position in relation to the soft tissue thickness. Materials and Methods Twenty‐five patients received two non‐splinted implants supporting an overdenture in the mandible. Soft tissue thickness was measured using bone sounding and ultrasonically. One implant was installed equicrestally (control), and the vertical position of the second implant was adapted to the site‐specific soft tissue thickness (test). Crestal bone levels were determined on digital peri‐apical radiographs and compared with baseline (implant placement). Results Twenty‐five patients were consecutively treated. No implants failed during the follow‐up. A significant correlation was observed between soft tissue thickness and bone level alterations after 6 months (ultrasound ICC = 0.610; bone sounding ICC = 0.641) with inferior bone levels for equicrestal implants when thin tissues are present. Subcrestal implants showed significantly better bone levels after 6‐month (n = 24, 0.04 mm versus 0.72 mm; p < .001), 1‐year (n = 24, 0.03 mm versus 0.77 mm; p < .001) and 2‐year follow‐up (n = 24, 0.04 mm versus 0.73 mm; p < .001). Conclusion Initial bone remodelling was affected by soft tissue thickness. Anticipating biologic width re‐establishment by adapting the vertical position of the implant seemed highly successful to avoid implant surface exposure.
To evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical implant position in relation to the soft tissue thickness. Twenty-five patients received two non-splinted implants supporting an overdenture in the mandible. Soft tissue thickness was measured using bone sounding and ultrasonically. One implant was installed equicrestally (control), and the vertical position of the second implant was adapted to the site-specific soft tissue thickness (test). Crestal bone levels were determined on digital peri-apical radiographs and compared with baseline (implant placement). Twenty-five patients were consecutively treated. No implants failed during the follow-up. A significant correlation was observed between soft tissue thickness and bone level alterations after 6 months (ultrasound ICC = 0.610; bone sounding ICC = 0.641) with inferior bone levels for equicrestal implants when thin tissues are present. Subcrestal implants showed significantly better bone levels after 6-month (n = 24, 0.04 mm versus 0.72 mm; p < .001), 1-year (n = 24, 0.03 mm versus 0.77 mm; p < .001) and 2-year follow-up (n = 24, 0.04 mm versus 0.73 mm; p < .001). Initial bone remodelling was affected by soft tissue thickness. Anticipating biologic width re-establishment by adapting the vertical position of the implant seemed highly successful to avoid implant surface exposure.
Author Nassar, Rima
Matthys, Carine
Cosyn, Jan
De Bruyn, Hugo
Christiaens, Veronique
Vervaeke, Stijn
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Issue 5
Keywords soft tissue
bone level
implant surface
prevention
dental implant
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
2018 John Wiley & Sons A/S. Published by John Wiley & Sons Ltd.
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The study was supported with a grant from Dentsply Implants. Dentsply Implants provided free materials to be used in the study.
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Snippet Aim To evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the...
To evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the vertical...
AimTo evaluate the effect of soft tissue thickness on bone remodelling and to investigate whether implant surface exposure can be avoided by adapting the...
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SubjectTerms Adaptation, Physiological
Adult
Aged
Aged, 80 and over
Alveolar Process - diagnostic imaging
Alveolar Process - surgery
Bone implants
bone level
Bone remodeling
Bone Remodeling - physiology
dental implant
Dental Implantation, Endosseous - methods
Dental Implants
Dental Prosthesis, Implant-Supported
Dental Restoration Failure - statistics & numerical data
Female
Gingiva - diagnostic imaging
Gingiva - surgery
Humans
implant surface
Male
Mandible
Middle Aged
prevention
Prospective Studies
Radiography
soft tissue
Transplants & implants
Ultrasonography - methods
Ultrasound
Title Adapting the vertical position of implants with a conical connection in relation to soft tissue thickness prevents early implant surface exposure: A 2‐year prospective intra‐subject comparison
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fjcpe.12871
https://www.ncbi.nlm.nih.gov/pubmed/29359339
https://www.proquest.com/docview/2036732078
https://www.proquest.com/docview/1990485529
Volume 45
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