Insulin resistance and skeletal health.
Study Goal
The researchers aimed to explore the role of Advanced Glycation End Products (AGEs) in bone health, particularly in the context of insulin resistance and type 2 diabetes.
Results Summary
The study suggests that AGEs, along with other factors like visceral fat and sedentary lifestyle, might contribute to diabetes-related bone deficits, but longitudinal data and advanced imaging studies are lacking.
Population
Children and adults with insulin resistance or type 2 diabetes.
Effective Dosage
Not specified
Duration
Not specified
Interactions
None mentioned
| Intervention | Direction | Endpoint | Population | Dosage | Impact | Claim # |
|---|---|---|---|---|---|---|
- | increase | bone density | people with increased insulin resistance | - | greater | #1 |
- | decrease | lumbar spine trabecular bone score | - | - | inverse associations | #2 |
increased visceral fat | neutral | diabetes effects on bone | - | - | might contribute | #3 |
suppressed muscle-bone unit | neutral | diabetes effects on bone | - | - | might contribute | #4 |
advanced glycation end-products | neutral | diabetes effects on bone | - | - | might contribute | #5 |
sedentary lifestyle | neutral | diabetes effects on bone | - | - | might contribute | #6 |
poor diet quality | neutral | diabetes effects on bone | - | - | might contribute | #7 |
PURPOSE OF REVIEW: Bone fragility is a complication of type 2 diabetes (T2D), and insulin resistance is suspected to contribute to diabetes-related bone deficits. This article provides an overview of emerging clinical research involving insulin resistance and bone health by summarizing recent publications, identifying existing knowledge gaps, and suggesting 'next steps' for this evolving field of research. RECENT FINDINGS: Clinical studies in children and adults report greater bone density in people with increased insulin resistance, but these associations are often attenuated when adjusting for body size. Advancements in bone imaging methods allow for assessment of nuanced characteristics of bone quality and strength that extend beyond standard bone mineral density assessment methods. For example, several recent studies focusing on lumbar spine trabecular bone score, a relatively new measure of trabecular bone quality from dual-energy X-ray absorptiometry, have reported generally consistent inverse associations with insulin resistance. Longitudinal studies using advanced imaging methods capable of evaluating trabecular bone microstructure and strength, such as high-resolution peripheral quantitative computed tomography, are lacking. Studies in younger individuals are sparse, but emerging data suggest that peak bone mass attainment might be threatened by diabetes progression, and increased visceral fat, suppressed muscle-bone unit, advanced glycation end-products, sedentary lifestyle, and poor diet quality might contribute to diabetes effects on bone. Prospective studies during the transition from adolescence to young adulthood are required. SUMMARY: Insulin resistance is a main feature of T2D, which is suspected to contribute to subclinical diabetes-related threats to bone health. Future clinical studies should focus on the critical years surrounding peak bone mass and peak bone strength attainment using contemporary imaging techniques.