Characterization and analysis of osseous changes in murine jaws induced by chronic metabolic acidosis

Purpose Chronic metabolic acidosis (MA) is a growing clinical concern linked to the rising prevalence of chronic kidney disease (CKD). While MA is known to cause systemic bone loss, its specific effects on craniofacial tissues and the role of sexual dimorphism remain under-investigated.Methods Male and female mice were subjected to a chronic acid challenge to model clinical MA. Raman spectroscopy and MicroCT were employed to evaluate the structural and compositional integrity of the maxilla and mandible, focusing on mineral crystallinity, carbonate content, and bone volume fraction.Results Site-specific analysis revealed the maxilla to be significantly more vulnerable to acid perturbation than the mandible. This compositional shift is consistent with physicochemical mineral dissolution and may reflect alterations in bone remodeling. In contrast, the mandible’s denser, more crystalline structure provided relative resilience to acid-induced changes. Furthermore, a significant sexual dimorphism was observed. Females demonstrated greater compositional sensitivity and a more pronounced decrease in mineral:matrix ratio compared to males.Conclusions These findings highlight the limitations of applying long-bone models to the craniofacial complex and underscore the need for clinical monitoring of oral health in patients with chronic metabolic disturbances.

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Publication Details

Journal
Connective Tissue Research
Published
2026-10-24
DOI
https://doi.org/10.1080/03008207.2026.2745906
Primary Topic
Renal function and acid-base balance
Type
article
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article

Characterization and analysis of osseous changes in murine jaws induced by chronic metabolic acidosis

Alix C. Deymier, Mikayla Moody, Laura Doherty, Emily L. Shadron
Connective Tissue Research
Renal function and acid-base balance
article

Characterization and analysis of osseous changes in murine jaws induced by chronic metabolic acidosis

Alix C. Deymier, Mikayla Moody, Laura Doherty, Emily L. Shadron
article en

Abstract

Purpose Chronic metabolic acidosis (MA) is a growing clinical concern linked to the rising prevalence of chronic kidney disease (CKD). While MA is known to cause systemic bone loss, its specific effects on craniofacial tissues and the role of sexual dimorphism remain under-investigated.Methods Male and female mice were subjected to a chronic acid challenge to model clinical MA. Raman spectroscopy and MicroCT were employed to evaluate the structural and compositional integrity of the maxilla and mandible, focusing on mineral crystallinity, carbonate content, and bone volume fraction.Results Site-specific analysis revealed the maxilla to be significantly more vulnerable to acid perturbation than the mandible. This compositional shift is consistent with physicochemical mineral dissolution and may reflect alterations in bone remodeling. In contrast, the mandible’s denser, more crystalline structure provided relative resilience to acid-induced changes. Furthermore, a significant sexual dimorphism was observed. Females demonstrated greater compositional sensitivity and a more pronounced decrease in mineral:matrix ratio compared to males.Conclusions These findings highlight the limitations of applying long-bone models to the craniofacial complex and underscore the need for clinical monitoring of oral health in patients with chronic metabolic disturbances.

Connective Tissue Research
Tufts University (US), UConn Health (US)
Openalex Percentile: Top 12%
Renal function and acid-base balance
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