Pregnancy Osteonecrosis of the jaw ONJ has been reported with ibandronate — monitor for symptoms. Atypical femoral fractures have been reported.
Evaluate patients with thigh or groin pain for femoral fracture. If any of these or other symptoms persist, patient should be discussing with the prescribing provider. Serious side effects should be immediately reported to the patient's provider. Concerning side effects include worsening heartburn, difficulty swallowing, chest discomfort, pain with swallowing, swollen or painful gums, loose teeth, jaw symptoms, poor healing after dental procedures, aching pain in groin, hips or thighs or unexpected broken bone in the hip or femur.
Allergic reactions are uncommon. The skin could be irritated near the site of infusion. Advise patient to seek emergency care with any signs or symptoms of life threatening reactions. These may include wheezing, chest tightness, itching, and cough, swelling of face, tongue or throat. Pre-infusion Checklist Check to ensure that a creatinine clearance has been performed within two weeks of the infusion, and that creatinine clearance is greater than 30 mL per minute.
Calcium level must be within normal range. Medication Preparation Ibandronate injection must be administered by a healthcare professional. Visually inspect the liquid in the prefilled syringe for particulate matter and discoloration before administration. Do not use prefilled syringes with particulate matter or discoloration. Administer only with the enclosed needle. Ibandonate has been found to be effective in treatment of bone metastases in advanced breast cancer.
Treatment was administered intravenously at 3- or 4-weekly intervals. The primary efficacy parameter was the number of week periods with new bone complications, expressed as the skeletal morbidity period rate SMPR. Ibandronate was generally well-tolerated.
Patients on ibandronate 6 mg also experienced decreased bone pain scores and analgesic use. Compared with baseline measurements, the bone pain score was increased at the last assessment in both the placebo and 2 mg ibandronate groups, but was significantly reduced in the patients receiving 6 mg ibandronate Significant improvements in the symptoms of fatigue and pain were also observed in the 6-mg ibandronate group.
The investigators concluded that intravenous ibandronate is effective and safe in the palliative treatment of bone metastases from breast cancer. The investigators found that treatment with ibandronate leads to significant improvements in quality oflife and is well-tolerated.
Ibandonate has been found to be poorly effective in multiple myeloma. Menssen et al reported on a double-blind, randomized, placebo-controlled study to assess the efficacy of ibandronate in preventing skeletal-related events SREs in advanced-stage multiple myeloma patients.
Patients with multiple myeloma stage II or III were randomly assigned to receive either ibandronate 2 mg or placebo as a monthly intravenous IV bolus injection for 12 to 24 months in addition to conventional chemotherapy. SREs such as peripheral pathologic or vertebral fractures, hypercalcemia, severe bone pain, and bone radiotherapy or surgery were analyzed.
Bone-turnover markers were also studied. Finally, post hoc analyses of bone morbidity and survival were performed. A total of 99 patients per treatment group were assessable for efficacy analysis. In overall evaluation, no differences were found between the treatment groups regarding bone pain, analgesic drug use, quality of life, and median survival Ibandronate has been found to be less effective than pamidronate in multiple myeloma.
Terpos et al reported on the results of a randomized trial to compare the efficacy of pamidronate and ibandronate in bone turnover and disease activity in multiple myeloma patients. Skeletal events, such as pathologic fractures, hypercalcaemia, and bone radiotherapy were analyzed. Bone resorption markers were also studied. The investigators reported that, in both groups, the combination of chemotherapy with either pamidronate or ibandronate produced a reduction in bone resorption and tumor burden from the second month of treatment, having no effect on bone formation.
However, there was a greater reduction in most markers of bone turnover in the pamidronate group than in the ibandronate group, that being continued throughout the month follow-up of this study. The investigators reported that there was no difference in skeletal events during this period. The investigators concluded that a monthly dose of 90 mg of pamidronate was more effective than 4 mg of ibandronate in reducing bone resorption and possibly tumor burden in multiple myeloma.
Guidelines from Cancer Care Ontario have concluded that ibandronate should not be used for treatment of multiple myeloma Imrie et al, Studies of IV ibandronate as an adjunctive treatment for other cancers that tend to metastasize to bone are under way Guay, Whether IV ibandronate will be a therapeutic advance is best answered by randomized, controlled trials.
According to the FDA approved labeling, ibandronate sodium injection is contraindicated in persons with uncorrected hypocalcemia and in persons with known hypersensitivity to ibandronate sodium injection or to any of its excipients.
Kreck and colleagues stated that osteoporosis is a frequent complication in patients with inflammatory bowel disease. Recent studies have shown bisphosphonates to considerably reduce fracture risk in patients with osteoporosis, and preventing fractures with bisphosphonates has been reported to be cost effective in older populations.
However, no studies of the cost effectiveness of these agents in preventing fractures in patients with inflammatory bowel disease are available. A cost-utility analysis was conducted using data from a randomized controlled trial RCT. Changes in BMD were adjusted and predicted for a standardized population receiving each respective treatment. A Markov model was developed, with probabilities of transition to fracture states consisting of BMD-dependent and BMD-independent components.
The BMD-independent component captured differences in bone quality and micro-architecture resulting from prevalent fractures or treatment with anti-resorptive drugs.
The analysis was conducted for a population with a mean age of the RCT patients women aged 36 years, men aged 38 years with osteopenia T-score about Outcomes were measured as costs per quality-adjusted life year QALY gained from a societal perspective. The treatment duration in the RCT was 42 months. A 5-year period was assumed to follow, during which the treatment effects linearly declined to 0.
The simulation time was 10 years. To test the robustness of the results, uni-variate and probabilistic sensitivity analyses Monte Carlo simulation were conducted. The "calcium" strategy dominated the "fluoride" strategy. When the "ibandronate" strategy was compared with the "calcium" strategy, the base-case cost-effectiveness ratios costs per QALY gained were between Euro , for an older female population with osteoporosis and Euro 6,, for a younger female population with osteopenia.
In Monte Carlo simulations, conducted for the various populations, the probability of an incremental cost-effectiveness ratio of ibandronate below Euro 50, per QALY was never greater than The authors concluded that the "ibandronate" strategy is unlikely to be considered cost effective by decision makers in men or women with characteristics of those in the target population of the RCT, or in older populations with osteoporosis.
Klause et al compared the effect of calcium and cholecalciferol alone and along with additional sodium fluoride or ibandronate on BMD and fractures in patients with Crohn's disease CD. Dual energy X-ray absorptiometry of the lumbar spine L1 to L4 and proximal right femur and X-rays of the spine were performed at baseline and after 1. Fracture-assessment included visual reading of X-rays and quantitative morphometry of vertebral bodies T4 to L4.
In the ITT analysis, similar results in all in- and between-group analyses with a significant in-group but non-significant between-group increase in T-score of the lumbar spine by 0. Follow-up in ITT analysis was still 2. One vertebral fracture in the sodium fluoride group was detected. Study medication was safe and well-tolerated. The authors concluded that additional sodium fluoride or ibandronate had no benefit over calcium and cholecalciferol alone in managing reduced BMD in CD.
Patients with chronic kidney disease have significant abnormalities of bone remodeling and mineral homeostasis and are at increased risk of fracture. The fracture risk for kidney transplant recipients is 4 times that of the general population and higher than for patients on dialysis. Ebeling noted that organ transplant candidates should be evaluated and pre-transplantation bone disease should be treated.
Preventive therapy initiated in the immediate post-transplantation period is indicated in patients with osteopenia or osteoporosis, as further bone loss will occur in the first several months following transplantation.
Long-term organ transplant recipients should also have bone mass measurement and treatment of osteoporosis. Bisphosphonates are the most promising approach for the management of transplantation osteoporosis. Active vitamin D metabolites may have additional benefits in reducing hyper-parathyroidism, particularly following kidney transplantation.
The author stated that large, multi-center treatment trials with oral or parenteral bisphosphonates and calcitriol are needed. Randomized controlled trials and quasi-RCTs comparing different treatments for kidney transplant recipients of any age were selected.
All other transplant recipients, including kidney-pancreas transplant recipients were excluded. Two authors independently evaluated trial quality and extracted data. No individual intervention bisphosphonates, vitamin D sterol or calcitonin was associated with a reduction in fracture risk compared with placebo.
Combining results for all active interventions against placebo demonstrated any treatment of bone disease was associated with a reduction in the RR of fracture RR 0. Bisphosphonates any route , vitamin D sterol, and calcitonin all had a beneficial effect on the BMD at the lumbar spine. Bisphosphonates and vitamin D sterol also had a beneficial effect on the BMD at the femoral neck. Bisphosphonates were more effective in preventing BMD loss when compared head-to-head with vitamin D sterols.
Few or no data were available for combined hormone replacement, testosterone, selective estrogen receptor modulators, fluoride or anabolic steroids.
Other outcomes including all-cause mortality and drug-related toxicity were reported infrequently. The authors concluded that treatment with bisphosphonates, vitamin D sterol or calcitonin after kidney transplantation may protect against immunosuppression-induced reductions in BMD and prevent fracture.
However, they state that adequately powered clinical studies are needed to ascertain if bisphosphonates are better than vitamin D sterols for fracture prevention in this population. Moreover, the optimal route, timing, and duration of administration of these interventions remains unknown. These investigators examined if intravenous ibandronate is an effective preventive option.
Sera were collected at CTP and every 3 months thereafter. At baseline and 6 and 12 months, standardized spinal X-rays and BMD measurements were taken. Serum bone resorption markers carboxy-terminal telopeptide region of type I collagen and tartrate-resistant acid phosphatase 5b were significantly increased in the CTR group and decreased in the IBN group at all time points compared with baseline.
In contrast, both osteocalcin and bone-specific alkaline phosphatase levels showed, after a similar decrease over the first 3 months in both groups, a marked rise in the CTR subjects and steadily declining levels in the IBN patients throughout the remainder of the study period. Three paired biopsies were available from each group. The authors concluded that intravenous IBN reduced fractures, preserved bone mass, and prevented uncoupling of bone formation and resorption after CTP. This was a small study; its findings need to be validated by further investigation, and comparisons with other alternatives, including oral bisphosphonates.
Spinal giant cell tumors are a rare clinical entity with a high recurrence rate following surgical resection. Furthermore, complete resection of such lesions remains a challenging surgical problem. The 1st patient with recurrent thoracic giant cell tumor recovered both clinically and radiologically after treatment with sodium ibandronate without re-operation at 6-years follow-up.
The 2nd patient also recovered with no recurrence of the tumor at 4-years follow-up. In the 3rd case, although not fully recovered, the recurrent sacral tumor was under control after treatment with sodium ibandronate at 2-years follow-up.
The authors concluded that these case studies demonstrated the potential promise of using sodium ibandronate in the treatment of primary and recurrent giant cell tumors of the spine. They stated that clinical evaluation should be performed in future studies.
Treeprasertsuk et al described the effects of parenteral bisphosphonates on BMD changes in primary biliary cirrhosis PBC patients with osteoporosis. A total of 17 PBC patients with osteoporosis diagnosed between and were enrolled retrospectively. All patients received one of the following parenteral bisphosphonates: The median interquartile-range age of patients at osteoporosis diagnosis was No serious adverse events were found. The authors concluded that more prospective studies are needed to evaluate the effectiveness of specific parenteral bisphosphonates in patients with PBC and osteoporosis.
In a Cochrane review, Rudic et al evaluated the beneficial and harmful effects of bisphosphonates for osteoporosis in PBC. Manufacturers and authors were contacted for additional studies during the conductance of the review. All RCTs of bisphosphonates in PBC compared with placebo or no intervention, or another bisphosphonate, or any other drug were selected for review.
Two authors extracted data. Methodological components were used to assess risk of systematic errors bias. Trial sequential analysis was also used to control for random errors play of chance. A total of 6 trials were included for analysis: Bisphosphonates had no significant effect on liver-related mortality, liver transplantation, or liver-related morbidity compared with placebo or no intervention, or another bisphosphonate.
Bisphosphonates compared with placebo or no intervention seem to decrease the urinary amino telopeptides of collagen I NTx concentration MD The former result was supported by trial sequential analysis, but not the latter. Alendronate compared with another bisphosphonate ibandronate had no significant effect on serum osteocalcin concentration MD There was no statistically significant difference in the number of patients having bisphosphonates withdrawn due to adverse events compared with placebo or no intervention RD
Adequately supplement patients with calcium and vitamin D. Patients were followed for 48 weeks. Pecherstorfer et al compared the efficacy and safety of ibandronate and pamidronate in patients with hypercalcemia of malignancy. Ibandronate cpt significantly improved lumbar injection BMD as shown by the percent change from baseline 4. All patients received one of the following parenteral bisphosphonates: An oral exam by the prescriber is performed prior to treatment. For investigators for that intravenous ibandronate is effective and safe in the palliative treatment of bone metastases from breast cancer, cpt code for boniva injection. Serum bone resorption markers carboxy-terminal telopeptide region of type I collagen and tartrate-resistant acid phosphatase 5b code significantly increased in the CTR group and decreased in the IBN group at all time points compared with baseline. Pecherstorfer et al conducted a phase IIb clinical trial to evaluate the hypocalcemic effect and safety of three different codes of ibandronate in hypercalcemia of malignancy. Ibandronate Injection is Indicated for the treatment of osteoporosis in postmenopausal women Dosing Intravenous ibandronate dosage is 3 mg once every 3 months. Studies of IV ibandronate as boniva adjunctive treatment boniva other cancers that tend to metastasize to injection are cpt way Guay, cpt code for boniva injection,
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