Is drug-induced bone loss acceptable in premenopausal women? A practical fracture risk modeling exercise

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This study modeled fracture risk in premenopausal women, finding that the amount of tolerable drug-induced bone loss depends on baseline bone status and its impact on later-life fracture probability.

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This paper examined how hypothetical drug-induced reductions in bone mineral density (BMD) and trabecular bone score (TBS) in premenopausal women would affect later-life 10-year major osteoporosis-related fracture risk, using FRAX® adjusted for BMD and TBS. Modeling across different baseline bone statuses, the authors found that the “tolerable” degree of BMD/TBS loss depended mainly on where a woman’s peak values fell in percentiles: women at or above the 50th percentile could tolerate about a 10% reduction without reaching treatment thresholds by age 75, whereas those at the 5th percentile reached thresholds even with no drug-induced reduction. The key limitation is that the study is a fracture risk modeling exercise with assumptions, including irreversibility of BMD/TBS loss, rather than direct longitudinal outcome data. Relevance to endometriosis: the included references discuss depot leuprolide acetate versus danazol for pelvic endometriosis with reported changes in vertebral bone mass and estradiol, though the paper’s main focus is fracture-risk modeling of hypothetical premenopausal drug-induced bone loss rather than endometriosis.

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Abstract

UNLABELLED: Premenopausal bone loss increases fracture risk later in life. Depending on peak values, varying degrees of bone mass and microarchitectural loss can be tolerated. We suggest that risk-benefit assessments of drugs that cause premenopausal bone loss be individualized considering baseline status and subsequent BMD and TBS loss. INTRODUCTION: It is logical that drug-induced loss of bone mass and microarchitecture in young adults increase fracture risk later in life. However, no existing data quantify how drug-induced bone loss in younger adults impacts fracture risk later in life. As such, no guidance exists to address the question "How much, if any, drug-induced bone loss in premenopausal women is acceptable?" Thus, we performed a systematic fracture risk modeling exercise examining various degrees of bone loss, and estimated the impact on 10-year major osteoporosis-related fracture risk later in life. METHODS: The FRAX® tool was used in conjunction with BMD and trabecular bone score (TBS) adjustment to estimate major osteoporotic fracture probability later in life resulting from varying degrees of hypothetical premenopausal drug-induced BMD and TBS loss. The resulting 10-year fracture probabilities were assessed against the US and the UK treatment guidance to determine the amount of premenopausal BMD and TBS loss that would result in a recommendation to initiate medical treatment to reduce fracture risk later in life that would not otherwise have been recommended in the absence of premenopausal bone loss. RESULTS: For women whose peak bone mass is between the 5th and 50th percentiles, varying degrees of BMD and TBS loss could be tolerated without reaching treatment thresholds. The degree of tolerable bone loss was primarily dependent on baseline bone status. Those whose peak BMD and TBS are in the 50th percentile or above could tolerate a 10% reduction in BMD and TBS without reaching treatment thresholds by age 75, whereas those in the 5th percentile would reach treatment thresholds by age 75 with no drug-induced reduction in BMD or TBS. Women in the 25th percentile could tolerate a 4% BMD loss and 2% TBS decline without reaching treatment thresholds by age 75. CONCLUSIONS: For clinicians and regulatory bodies to assess the consequence of drug-induced premenopausal bone loss, we propose an individualized approach considering both loss of BMD and TBS in concert with baseline bone status and the resultant effect on fracture risk in later life using the assumption that such losses are irreversible.
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Abstract

Summary Premenopausal bone loss increases fracture risk later in life. Depending on peak values, varying degrees of bone mass and microarchitectural loss can be tolerated. We suggest that risk-benefit assessments of drugs that cause premenopausal bone loss be individualized considering baseline status and subsequent BMD and TBS loss.

Introduction

It is logical that drug-induced loss of bone mass and microarchitecture in young adults increase fracture risk later in life. However, no existing data quantify how drug-induced bone loss in younger adults impacts fracture risk later in life. As such, no guidance exists to address the question “How much, if any, drug-induced bone loss in premenopausal women is acceptable?” Thus, we performed a systematic fracture risk modeling exercise examining various degrees of bone loss, and estimated the impact on 10-year major osteoporosis-related fracture risk later in life.

Methods

The FRAX® tool was used in conjunction with BMD and trabecular bone score (TBS) adjustment to estimate major osteoporotic fracture probability later in life resulting from varying degrees of hypothetical premenopausal drug-induced BMD and TBS loss. The resulting 10-year fracture probabilities were assessed against the US and the UK treatment guidance to determine the amount of premenopausal BMD and TBS loss that would result in a recommendation to initiate medical treatment to reduce fracture risk later in life that would not otherwise have been recommended in the absence of premenopausal bone loss.

Results

For women whose peak bone mass is between the 5th and 50th percentiles, varying degrees of BMD and TBS loss could be tolerated without reaching treatment thresholds. The degree of tolerable bone loss was primarily dependent on baseline bone status. Those whose peak BMD and TBS are in the 50th percentile or above could tolerate a 10% reduction in BMD and TBS without reaching treatment thresholds by age 75, whereas those in the 5th percentile would reach treatment thresholds by age 75 with no drug-induced reduction in BMD or TBS. Women in the 25th percentile could tolerate a 4% BMD loss and 2% TBS decline without reaching treatment thresholds by age 75.

Conclusions

For clinicians and regulatory bodies to assess the consequence of drug-induced premenopausal bone loss, we propose an individualized approach considering both loss of BMD and TBS in concert with baseline bone status and the resultant effect on fracture risk in later life using the assumption that such losses are irreversible.

References

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Authors’ roles: Study design: NB, RB, TF, LS, and DH. Study conduct: NB, RB, TF, LS, DH. Data collection: RB and DH. Data analysis: NB, RB, TF, LS, DH. Data interpretation: NB, RB, TF, LS, DH. Drafting manuscript: NB, RB, TF, LS, DH. Revising manuscript content: NB, RB, TF, LS, DH. Approving final version of manuscript: NB, RB, TF, LS, DH. Takes responsibility for the integrity of the data analysis: NB, RB, TF, LS, DH. Funding No funding was provided for this research; medical writing support was provided by Succinct Choice Medical Communications (Chicago, IL) and funded by Astellas Pharma Inc. Author information Authors and Affiliations Corresponding author Ethics declarations Conflicts of interest Neil Binkley declares no conflict of interest. Robin Besuyen is a contractor assigned to Astellas projects. Thomas Fuerst is an employee of Bioclinica, Inc. and provides central reading services, including those related to bone mineral density monitoring. Laurence Skillern is an employee of Astellas. Didier Hans is co-owner of the TBS patent and has corresponding ownership shares and position in Medimaps Group and reports fees from Astellas to Medimaps Group for TBS central analysis during the conduct of the study. Ethical approval This article does not contain studies with human participants or animals by any of the authors. Rights and permissions About this article Cite this article Binkley, N., Besuyen, R., Fuerst, T. et al. Is drug-induced bone loss acceptable in premenopausal women? A practical fracture risk modeling exercise. Osteoporos Int 28, 3501–3513 (2017). https://doi.org/10.1007/s00198-017-4258-y Received: Accepted: Published: Issue date: DOI: https://doi.org/10.1007/s00198-017-4258-y

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endometriosis

MeSH descriptors

Estrogen Antagonists Osteoporosis Osteoporotic Fractures Absorptiometry, Photon Absorptiometry, Photon Adult Aged Age Factors Aging Aging Bone Density Bone Density Endometriosis Endometriosis Estrogen Antagonists Estrogen Antagonists Female Gonadotropin-Releasing Hormone Gonadotropin-Releasing Hormone Humans

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