Copyright © 2008 by The Journal of Bone and Joint Surgery, Inc.

Commentary & Perspective

Commentary & Perspective on
"Improving Evaluation and Treatment for Osteoporosis Following Distal Radial Fractures. A Prospective Randomized Intervention"
by Tamara D. Rozental, MD, et al.

Commentary & Perspective by
Earl R. Bogoch, MD, Joanna E.M. Sale, PhD, and Dorcas E. Beaton, PhD*,
St. Michael's Hospital, University of Toronto, Toronto, Ontario, Canada

Posted May 2008

The current challenge in osteoporosis care is to find effective interventions that systematically and reliably achieve the widely agreed-upon goal of appropriate osteoporosis investigation and treatment. Over time, and with the constant flow of patients who present with fragility fractures, our attitudes regarding osteoporosis management have evolved. It is no longer sufficient to determine that appropriate osteoporosis investigation and treatment should be undertaken; rather, our focus has shifted toward achieving improved performance in this area.

In the study by Rozental et al., the finding in Aim 1, that 79% of patients with a fragility fracture of the wrist were not subsequently screened for osteoporosis and 73% of patients did not receive treatment for abnormal bone density, echoes a familiar reality that has often been observed over the last decade. The importance of this study lies in Aim 2, which compared two interventions; one in which the orthopaedic surgeon orders a bone mineral density test and forwards the results to the primary care physician, and another, the control intervention, in which the primary care physician is simply sent a letter and e-mail outlining national guidelines for osteoporosis evaluation and treatment. Intervention in the form of the orthopaedic surgeon sending bone mineral density test data resulted in nearly three times as many patients undergoing bone mineral density testing and receiving osteoporosis treatment as compared with patients whose primary care physician only received a guidelines letter.

Several approaches to achieving appropriate osteoporosis management in patients with a fragility fracture have recently been published; such programs are under review internationally. Some models utilize staff-intensive programs to initiate a comprehensive intervention in the fracture-clinic environment. Such interventions by the orthopaedic team, often coordinated by a nurse manager, have proven to be effective in identifying, evaluating, and treating patients who have sustained a fragility fracture. For example, in a randomized controlled trial of an intervention for patients with a fragility fracture of the hip, a dedicated osteoporosis case manager arranged for bone mineral density testing, provided individual counseling and patient education, and arranged for bisphosphonate therapy to be prescribed by a study physician1. At six months following hip fracture, 80% of patients in the intervention group had undergone bone mineral density testing and 51% were being treated with bisphosphonates. In a four-year clinical improvement project, patients with fragility fracture were identified through orthopaedic monthly billing data and directly referred to an osteoporosis care program2. A nurse manager scheduled bone mineral density testing and arranged for osteoporosis consultation, evaluation of metabolic bone disorders, and physiotherapy for prevention of and rehabilitation after a fall and recommended appropriate treatment to the primary care physician, with follow-up visits occurring at three-month intervals. In the first year of the program, 58% of patients with a fragility fracture had undergone bone mineral density testing. Of the 82% of patients with a confirmed diagnosis of osteopenia or osteoporosis, 35% were scheduled for osteoporosis consultation and 62% were referred for bisphosphonate treatment.

In Glasgow, Scotland, dedicated osteoporosis specialist nurses identified inpatients and outpatients with a fragility fracture at five acute care hospitals and referred them to a centralized fracture liaison service for appropriate osteoporosis investigation and treatment as well as patient education and consultation regarding osteoporosis3. In the first eighteen months of the program, 74% of patients were assessed for osteoporosis and 56% were treated with medication (bisphosphonate, raloxifene, hormone replacement therapy) and/or calcium and vitamin D. In Toronto, Canada, a dedicated coordinator identified patients with a fragility fracture, provided individual osteoporosis counseling and education, initiated calcium and vitamin-D supplementation, and coordinated referrals for bone mineral density testing, evaluation by the Metabolic Bone Disease Clinic, and initiation of pharmacotherapy through the orthopaedic surgeons4. In the first year of the program, 96% of patients received appropriate attention for osteoporosis, including 34% who had been previously diagnosed and treated for osteoporosis and were encouraged to continue, 9% who were diagnosed and treated directly by the orthopaedic surgeon or during their initial consultation at the Metabolic Bone Disease Clinic, and 48% who were referred to the Metabolic Bone Disease Clinic or to the primary care physician for further investigation.

Other osteoporosis intervention programs have focused on alerting the primary care physician. An early fracture-clinic intervention, consisting of an interview to inform the patient of his or her osteoporosis risk followed by a standard letter mailed to the primary care physician, demonstrated an increased rate of osteoporosis investigation (including bone mineral density testing), but not treatment5. More recently, Majumdar et al.6 described an intervention that included a brief counseling session with patients with a fragility fracture of the wrist, followed by a detailed letter sent to the primary care physician that included details about the patient's treatment, osteoporosis risk information, and, perhaps most importantly, evidence-based treatment guidelines endorsed by local opinion leaders (educationally influential physician peers in the area of osteoporosis). This intervention resulted in 52% of patients receiving bone mineral density testing and 38% receiving appropriate care. In a different intervention by Feldstein et al.7, an electronic medical record reminder recommending osteoporosis evaluation and treatment was sent to the primary care providers of women who were between fifty and eighty-nine years of age and had sustained a fracture. The reminder met with similar results: just over half of the patients received bone mineral density testing or osteoporosis medication. Finally, in a pilot project of the "Own the Bone" initiative conducted by the American Orthopaedic Association, a web-based tool was utilized at fourteen orthopaedic care facilities to collect data on patients presenting with fragility fractures and to prompt communication about osteoporosis diagnosis and treatment between the patient and the primary care physician8. Using the interactive website, the practitioner could access customized patient education materials and guideline-based individualized recommendations for osteoporosis diagnosis and treatment. While the rate of communication between patient and physician doubled in comparison with the rates before intervention, bone mineral density testing and pharmacotherapy for osteoporosis did not improve.

The study by Rozental et al. combined a relatively simple intervention by the orthopaedic surgeon (i.e., ordering a bone mineral density test) with communication with the primary care physician (i.e., forwarding the results), who would then be responsible for initiating osteoporosis treatment. In this intervention, 93% of patients had a bone mineral density test and 74% started therapy for osteoporosis.

The diversity of these intervention models demonstrates the range of factors to be considered when trying to improve osteoporosis evaluation and treatment:

Case Finding: How are relevant cases (i.e., inpatients and outpatients with fragility fractures) to be identified to ensure that patients are not missed? Some interventions make use of a coordinator or nurse manager to review all patients in the fracture clinic and orthopaedic ward; some rely on direct identification by the orthopaedic surgeon at the point of care. Other interventions are triggered by a diagnosis or billing code in a central administrative database.

Education: In some models, patients are educated about osteoporosis by a coordinator during a direct consultation. Alternatively, patients may be counseled over the telephone, may receive a letter and osteoporosis-related materials in the mail, or may be offered the option of visiting a web site.

Investigation: The responsibility for investigation of osteoporosis may lie with the program's central staff (i.e., the nurse manager-coordinator and/or the orthopaedic team), or it may be transferred to a primary care physician.

Intervention: Appropriate intervention (e.g., calcium and vitamin-D supplements, pharmacotherapy, additional investigation for causes of secondary osteoporosis, physiotherapy, and fall prevention consultation) may be designed by a central program, may be initiated under medical direction and coordinated by a nurse manager or osteoporosis specialist centrally, and/or may be delegated to a primary care physician. Alternatively, intervention may be the full responsibility of the orthopaedic surgeon or the primary care physician.

Clearly, many combinations are possible, and no single "winning" model for osteoporosis management of patients with a fragility fracture has yet emerged. The advantage of a central coordinator model is that it is clearly effective1-4, but there are questions associated with the cost. Many programs that rely on the primary care physician to follow through with investigation and especially treatment have failed to result in an acceptable response in terms of patients receiving appropriate treatment for osteoporosis5-8. One of the challenges is to determine how to motivate the primary care physician to initiate care. The current study by Rozental et al. suggests that completion of densitometry and provision of the densitometry results to the primary care physician is a powerful motivator for initiating treatment of osteoporosis. The study was well designed to control for densitometry as an independent factor and resulted in a 2.5-fold higher treatment rate among patients who underwent bone mineral density testing.

Knowledge of bone mineral density results may also enhance patient adherence with treatment. Patients with osteopenia or osteoporosis who are aware of and understand the bone mineral density results are more likely to be treated with osteoporosis medications and adhere to treatment than are patients who do not know the bone mineral density results9-11.

As experience grows regarding the establishment of postfracture osteoporosis care programs in various jurisdictions, it will be beneficial to study the models of care proffered by Rozental et al. and others. The goal will be to design cost-effective models of postfracture osteoporosis care that work in health-care environments that differ in their funding arrangements, forms of organization, type of care facility, and case density.

*The authors did not receive any outside funding or grants in support of their research for or preparation of this work. Neither they nor a member of their immediate families received payments or other benefits or a commitment or agreement to provide such benefits from a commercial entity. No commercial entity paid or directed, or agreed to pay or direct, any benefits to any research fund, foundation, division, center, clinical practice, or other charitable or nonprofit organization with which the authors, or a member of their immediate families, are affiliated or associated.

References

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