***TASK*** the task is to summarize an input biomedical literature in six sentences 
    ***INPUT*** the input is a biomedical literature 
    ***OUTPUT*** the output is the summary of an input biomedical literature in six sentences 
    ***DOCUMENTATION*** 
    ***EXAMPLES*** 
    Input: CONTEXT There are few data on long-term mortality following  osteoporotic fracture and fewer following subsequent fracture . OBJECTIVES To examine long-term mortality risk in women and men following all osteoporotic fractures  and to assess the association of subsequent fracture with that risk . DESIGN , SETTING , AND PARTICIPANTS Prospect i ve cohort from the Dubbo Osteoporosis Epidemiology Study of community-dwelling women and men aged 60 years and older from Dubbo , Australia , who sustained a fracture between April 1989 and May 2007 . MAIN OUTCOME MEASURES Age- and sex-specific st and ardized mortality ratios ( SMRs ) compared with the overall Dubbo population for hip , vertebral , major , and minor fractures . RESULTS In women , there were 952 low-trauma fractures followed by 461 deaths , and in men , 343 fractures were followed by 197 deaths .  Age-adjusted SMRs were increased following hip fractures ( SMRs , 2.43 [ 95 % confidence interval [ CI ] , 2.02 - 2.93 ] and 3.51 [ 95 % CI , 2.65 - 4.66 ] ) , vertebral fractures ( SMRs , 1.82 [ 95 % CI , 1.52 - 2.17 ] and 2.12 [ 95 % CI , 1.66 - 2.72 ] ) , major fractures ( SMRs , 1.65 [ 95 % CI , 1.31 - 2.08 ] and 1.70 [ 95 % CI , 1.23 - 2.36 ] ) , and minor fractures ( SMRs , 1.42 [ 95 % CI , 1.19 - 1.70 ] and 1.33 [ 95 % CI , 0.99 - 1.80 ] ) for both women and men , respectively . Mortality was increased for all ages for all fractures except minor fractures for which increased mortality was only apparent for those older than 75 years . Increased mortality risk persisted for 5 years for all fractures and up to 10 years for hip fractures . Increases in absolute mortality that were above expected , for 5 years after fracture , ranged from 1.3 to 13.2 per 100 person-years in women and from 2.7 to 22.3 per 100 person-years in men , depending on fracture type . Subsequent fracture was associated with an increased mortality hazard ratio of 1.91 ( 95 % CI , 1.54 - 2.37 ) in women and 2.99 ( 95 % CI , 2.11 - 4.24 ) in men . Mortality risk following a subsequent fracture then declined but beyond 5 years still remained higher than in the general population ( SMR , 1.41 [ 95 % CI , 1.01 - 1.97 ] and SMR , 1.78 [ 95 % CI , 0.96 - 3.31 ] for women and men , respectively ) . Predictors of mortality after any fragility fracture for both men and women included age , quadriceps weakness , and subsequent fracture but not comorbidities . Low bone mineral density , having smoked , and sway were also predictors for women and less physical activity for men . CONCLUSIONS In a sample of older women and men , all low-trauma fractures were associated with increased mortality risk for 5 to 10 years . Subsequent fracture was associated with increased mortality risk for an additional 5 years BACKGROUND In a r and omized trial of patients with hip fractures , we previously demonstrated that a hospital-based case manager could increase rates of appropriate osteoporosis treatment to 51 % compared with 22 % for usual care ( P < .001 ) . Alongside that trial , we conducted an economic analysis . METHODS Patients with hip fractures were r and omized to usual care ( n = 110 ) or a case manager ( n = 110 ) and followed up for 1 year . Time-motion studies were used to determine intervention costs . From a third-party health care payer perspective and over the patient 's remaining lifetime , a Markov decision-analytic model was constructed to determine  cost-effectiveness  of the intervention compared with usual care .  Costs and benefits were discounted at 3 % and expressed in 2006 Canadian dollars . RESULTS The intervention cost CaD $ 56 per patient . Compared with usual care , the intervention strategy was dominant : for every 100 patients case managed , 6 fractures ( 4 hip fractures ) were prevented , 4 quality -adjusted life-years were gained , and CaD $ 260 000 was saved by the health care system . Irrespective of the number of patients case managed , the intervention reached a break-even threshold within 2 years . The intervention dominated usual care over the entire spectrum of 1-way sensitivity analyses and was cost-saving in 82 % of probabilistic model simulations . CONCLUSIONS Compared with usual care , we found that using a case manager for patients with hip fractures increased rates of appropriate osteoporosis treatment . The intervention dominated usual care , and the analysis suggests that systems implementing an intervention similar to ours should expect to see a reduction in fractures , gains in life expectancy , and substantial cost savings . TRIAL REGISTRATION clinical trials.gov Identifier : NCT00175175 Background : Fractures have largely been assessed by their impact on quality of life or health care costs . We conducted this study to evaluate the relation between fractures and mortality . Methods : A total of 7753 r and omly selected people ( 2187 men and 5566 women ) aged 50 years and older from across Canada participated in a 5-year observational cohort study  . Incident fractures were identified on the basis of vali date d self-report and were classified by type ( vertebral , pelvic , forearm or wrist , rib , hip and “ other ” ) . We subdivided fracture groups by the year in which the fracture occurred during follow-up ; those occurring in the fourth and fifth years were grouped together . We examined the relation between the time of the incident fracture and death . Results : Compared with participants who had no fracture during follow-up , those who had a vertebral fracture in the second year were at increased risk of death ( adjusted hazard ratio [ HR ] 2.7 , 95 % confidence interval [ CI ] 1.1–6.6 ) ; also at risk were those who had a hip fracture during the first year ( adjusted HR 3.2 , 95 % CI 1.4–7.4 ) . Among women , the risk of death was increased for those with a vertebral fracture during the first year ( adjusted HR 3.7 , 95 % CI 1.1–12.8 ) or the second year of follow-up ( adjusted HR 3.2 , 95 % CI 1.2–8.1 ) . The risk of death was also increased among women with hip fracture during the first year of follow-up ( adjusted HR 3.0 , 95 % CI 1.0–8.7 ) . Interpretation : Vertebral and hip fractures are associated with an increased risk of death . Interventions that reduce the incidence of these fractures need to be implemented to improve survival BACKGROUND Most older patients are not treated for osteoporosis after fragility fracture . In a 3-armed r and omized trial , we reported that 2 inexpensive mail-based interventions , one directed at physicians and the other at physicians plus patients , increased 1-year osteoporosis treatment starts by 4 % and 6 % ( respectively ) compared with usual care starts of 11 % . The cost-effectiveness of these interventions is unknown . METHODS The incremental cost-effectiveness of interventions compared with usual care was assessed using Markov decision-analytic models . Costs were expressed in 2010 Canadian dollars and long-term effectiveness based on quality -adjusted life years ( QALYs ) gained derived from hypothetical model simulations . The perspective was third-party health care payer ; the time horizon was lifetime ; and the costs and benefits were discounted 3 % . RESULTS The physician intervention  cost was $ 7.12 per patient , whereas the physician plus patient intervention cost was $ 8.45 . Compared with usual care , the economic simulation demonstrated that for every 1000 patients getting the physician intervention , there were 2 fewer fractures , 2 more QALYs gained , and $ 22,000 saved . Compared with physician intervention , the simulation demonstrated that for every 1000 patients receiving physician plus patient intervention , there was 1 fewer fracture and 1 more QALY gained , with $ 18,000 saved . Both interventions dominated usual care and were cost saving or highly cost effective in 67 % of 10 000 probabilistic simulations . Although the physician plus patient intervention cost was $ 1.33 more per patient than the physician intervention , it was still the most economically attractive option . CONCLUSIONS Pragmatic mail-based interventions directed at patients with recent fractures and their physicians are a highly cost-effective means to improving osteoporosis management and both interventions dominated usual care BACKGROUND We examined the effects of  hip fracture  on mortality , entry into long-term institutional care , and new evidence of poverty . We estimate of the proportion of hip fracture patients who require not just short-term rehabilitation but who become dependent on long-term institutional care , and the risk of becoming newly dependent on Medicaid or eligible for low-income subsidies following hip fracture . METHODS We used data from 2005 through 2010 for a r and om 5 % sample of Medicare beneficiaries ( N = 3.1 million ) to conduct a retrospective matched cohort study . We used high-dimensional propensity score matching to compare outcomes for patients who experienced a hip fracture with subjects who did not , but had similar propensity for suffering a hip fracture . We then compared the 1-year risk of death , debility , and destitution between groups . RESULTS We matched 43,210 hip fracture patients to comparators without a hip fracture . Hip fractures were associated with more than a twofold increase in likelihood of mortality ( incidence proportion ratio [ IPR ] of 2.27 , 95 % CI , 2.20 - 2.34 ) , a fourfold increase in likelihood of requiring long-term nursing facility care ( IPR , 3.96 ; 95 % CI , 3.77 - 4.16 ) , and a twofold increase in the probability of entering into low-income status ( IPR , 2.14 ; 95 % CI 1.99 - 2.31 ) within 1 year following hip fracture compared with subjects without a hip fracture . CONCLUSIONS Hip fracture in elderly patients result ed in increased death , debility , and destitution . Initiatives that lead to improved treatment of osteoporosis could result in a decrease in incidence of fractures , subsequent death , debility , and destitution for older adults Introduction Older patients with fragility fractures are not commonly tested or treated for osteoporosis . Compared to usual care , a previously reported intervention led to 30 % absolute increases in osteoporosis treatment within 6 months of wrist fracture . Our objective was to examine longer-term outcomes , reproducibility , and cost-effectiveness of this intervention . Methods We conducted an extended analysis of a non-r and omized controlled trial with blinded ascertainment of outcomes that compared a multifaceted intervention to usual care controls .  Patients > 50 years with a wrist fracture treated in two Emergency Departments in the province of Alberta , Canada were included ; those already treated for osteoporosis were excluded . Overall , 102 patients participated in this study ( 55 intervention and 47 controls ; median age : 66 years ; 78 % were women ) . The interventions consisted of faxed physician reminders that contained osteoporosis treatment guidelines endorsed by opinion leaders and patient counseling . Controls received usual care ; at 6-months post-fracture , when the original trial was completed , all controls were crossed-over to intervention . The main outcomes were rates of osteoporosis testing and treatment within 6 months ( original study ) and 1 year ( delayed intervention ) of fracture , and 1-year persistence with treatments started . From the perspective of the healthcare payer , the cost-effectiveness ( using a Markov decision-analytic model ) of the intervention was compared with usual care over a lifetime horizon . Results Overall , 40 % of the intervention patients ( vs. 10 % of the controls ) started treatment within 6 months post-fracture , and 82 % ( 95%CI : 67–96 % ) had persisted with it at 1-year post-fracture . Delaying the intervention to controls for 6 months still led to equivalent rates of bone mineral density ( BMD ) testing ( 64 vs. 60 % in the original study ; p = 0.72 ) and osteoporosis treatment ( 43 vs. 40 % ; p = 0.77 ) as previously reported . Compared with usual care , the intervention strategy was dominant – per patient , it led to a $ 13 Canadian ( U.S. $ 9 ) cost savings and a gain of 0.012 quality -adjusted life years . Base-case results were most sensitive to assumptions about treatment cost ; for example , a 50 % increase in the price of osteoporosis medication led to an incremental cost-effectiveness ratio of $ 24,250 Canadian ( U.S. $ 17,218 
    Output:
    
FLS , implemented in different ways and countries , are reported to be cost-effective or even cost-saving .