Bioengineering· 2026Q2
Tissue-Specific Remodeling and Load Partitioning in Maxillary Expansion: An Evidence-Informed Three-Compartment Mechanobiological Framework
- 0citations
- Q2SCImago
- 2026year
Short summary
A new three-compartment model separates maxillary expansion's effects into sutural skeletal, alveolar, and periodontal domains, allowing for distinct analysis of orthopedic targets versus adaptive tissue responses.
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Key points
- Maxillary expansion involves distinct sutural, alveolar, and periodontal tissue responses that are often conflated in clinical reporting.
- A new three-compartment model categorizes these responses into skeletal, alveolar, and periodontal domains based on their treatment roles.
- The model acknowledges overlapping mechanosensing and cellular activities within expanded sutures but distinguishes primary orthopedic goals from adaptive tissue changes.
- It provides a framework for testable predictions using multimodal imaging, biological measurements, and computational modeling.
AI-generated from the title and abstract; the full text is not read.
Abstract
Maxillary expansion combines sutural skeletal displacement with variable alveolar, dental, and periodontal responses. Because these effects are often reported as a single transverse outcome, their biological contributions are difficult to separate. We reviewed clinical, histological, and experimental evidence on midpalatal and circummaxillary sutural remodeling, alveolar deformation, anchorage-related periodontal loading, and used this evidence to formulate a three-compartment model. The sutural skeletal domain is the intended orthopedic target; the alveolar and dentoalveolar domain describes adaptive load transfer; and the anchorage-related periodontal domain captures non-target tissue responses. These labels describe treatment roles and do not imply a fixed sequence or biological independence. Experimental studies report overlapping mechanosensing, cellular recruitment, osteoclast-related margin turnover, immune and vascular activity, and osteogenesis within expanded sutures. Direct longitudinal molecular data in humans remain scarce, and the order of these events is unresolved. Clinical imaging also shows that comparable transverse corrections can contain different proportions of sutural opening, alveolar bending, dental tipping, and buccal cortical change. The model distinguishes skeletal correction from accompanying dentoalveolar and periodontal effects and yields testable predictions for multimodal imaging, tissue-specific biological measurements, histology, and patient-specific computational modeling. We present it as a provisional analytic model, not as a validated biological classification or clinical prediction rule.
The authors' abstract, as published at the source. Bioengineering, 2026 · DOI ↗
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Field: Orthodontics
OrthodonticsDentistry