UNLABELLED: The incidence of hip fracture, death and the estimated incidence of major osteoporotic fracture in France were used to determine the lifetime and 10-year probability of fracture and incorporated into a probability model (FRAX®) calibrated to the French population. INTRODUCTION: Fracture probabilities in the French population have not been determined. Our aim was to determine the incidence of hip fracture in France and the estimated 10-year probabilities of hip and major osteoporotic fractures. METHODS: The study population included adults over 50 years living in France in 2004. Incident hip fracture cases were identified from the French PMSI database. Incidence of the other major osteoporotic fractures was imputed from the relationship between hip fracture incidence and other major fracture in Sweden. These data were used to calculate population-based fracture probabilities according to age and BMD using cutoff values for femoral neck T-scores from the NHANES III data in Caucasian women. The probability model (FRAX®) calibrated to the French population was used to compute individual fracture probabilities according to specific clinical risk factors. RESULTS: We identified 15,434 men and 51,469 women with an incident hip fracture. The remaining lifetime probability of hip fracture at 50 years was approximately 10 and 30% respectively. With a femoral neck T-score of -2 SD, one in two women and one in five men would sustain a major osteoporotic fracture in their lifetime. The 10-year probability of other major osteoporotic fractures increased with declining T-score and increasing age. Low body mass index and other clinical risk factors had an independent effect on fracture probability whether or not BMD was included in the FRAX® model. CONCLUSION: This analysis provides detailed estimation on the risk of fracture in the French population and may help to define therapeutic guidelines.
UNLABELLED: The incidence of hip fracture, death and the estimated incidence of major osteoporotic fracture in France were used to determine the lifetime and 10-year probability of fracture and incorporated into a probability model (FRAX®) calibrated to the French population. INTRODUCTION:Fracture probabilities in the French population have not been determined. Our aim was to determine the incidence of hip fracture in France and the estimated 10-year probabilities of hip and major osteoporotic fractures. METHODS: The study population included adults over 50 years living in France in 2004. Incident hip fracture cases were identified from the French PMSI database. Incidence of the other major osteoporotic fractures was imputed from the relationship between hip fracture incidence and other major fracture in Sweden. These data were used to calculate population-based fracture probabilities according to age and BMD using cutoff values for femoral neck T-scores from the NHANES III data in Caucasian women. The probability model (FRAX®) calibrated to the French population was used to compute individual fracture probabilities according to specific clinical risk factors. RESULTS: We identified 15,434 men and 51,469 women with an incident hip fracture. The remaining lifetime probability of hip fracture at 50 years was approximately 10 and 30% respectively. With a femoral neck T-score of -2 SD, one in two women and one in five men would sustain a major osteoporotic fracture in their lifetime. The 10-year probability of other major osteoporotic fractures increased with declining T-score and increasing age. Low body mass index and other clinical risk factors had an independent effect on fracture probability whether or not BMD was included in the FRAX® model. CONCLUSION: This analysis provides detailed estimation on the risk of fracture in the French population and may help to define therapeutic guidelines.
Authors: A V Schwartz; J L Kelsey; S Maggi; M Tuttleman; S C Ho; P V Jónsson; G Poór; J A Sisson de Castro; L Xu; C C Matkin; L M Nelson; S P Heyse Journal: Osteoporos Int Date: 1999 Impact factor: 4.507
Authors: C De Laet; J A Kanis; A Odén; H Johanson; O Johnell; P Delmas; J A Eisman; H Kroger; S Fujiwara; P Garnero; E V McCloskey; D Mellstrom; L J Melton; P J Meunier; H A P Pols; J Reeve; A Silman; A Tenenhouse Journal: Osteoporos Int Date: 2005-06-01 Impact factor: 4.507
Authors: John A Kanis; Helena Johansson; Olof Johnell; Anders Oden; Chris De Laet; John A Eisman; Huibert Pols; Alan Tenenhouse Journal: Osteoporos Int Date: 2004-09-29 Impact factor: 4.507
Authors: John A Kanis; Olof Johnell; Chris De Laet; Bengt Jonsson; Anders Oden; Alan K Ogelsby Journal: J Bone Miner Res Date: 2002-07 Impact factor: 6.741
Authors: J A Kanis; O Johnell; A Oden; H Johansson; C De Laet; J A Eisman; S Fujiwara; H Kroger; E V McCloskey; D Mellstrom; L J Melton; H Pols; J Reeve; A Silman; A Tenenhouse Journal: Osteoporos Int Date: 2004-06-03 Impact factor: 4.507
Authors: J A Kanis; H Johansson; A Oden; O Johnell; C De Laet; J A Eisman; E V McCloskey; D Mellstrom; L J Melton; H A P Pols; J Reeve; A J Silman; A Tenenhouse Journal: Bone Date: 2004-11 Impact factor: 4.398
Authors: J Sanfélix-Genovés; G Sanfélix-Gimeno; S Peiró; I Hurtado; C Fluixà; A Fuertes; J C Campos; V Giner; C Baixauli Journal: Osteoporos Int Date: 2012-05-23 Impact factor: 4.507
Authors: L Cui; L Chen; W Xia; Y Jiang; L Cui; W Huang; W Wang; X Wang; Y Pei; X Zheng; Q Wang; Z Ning; M Li; O Wang; X Xing; Q Lin; W Yu; X Weng; L Xu; S R Cummings Journal: Osteoporos Int Date: 2017-05-30 Impact factor: 4.507