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Molecular basis for action of bioactive glasses as bone graft substitute.

Bone grafting procedures are undergoing a major shift from autologous and allogeneic bone grafts to synthetic bone graft substitutes. Bioactive glasses are a group of synthetic silica-based bioactive materials with bone bonding properties first discovered by Larry Hench. They have several unique properties compared with other synthetic bioresorbable bioactive ceramics, such as calcium phosphates, hydroxyapatite (HA) and tricalcium phosphate (TCP). Bioactive glasses have different rates of bioactivity and resorption rates depending on their chemical compositions. The critical feature for the rate of bioactivity is a SiO2 content < 60% in weight. In vivo, the material is highly osteoconductive and it seems to promote the growth of new bone on its surface. In a recent study, the activity of the material was found even to overshadow the effect of BMP-2 gene therapy. In vivo, there is a dynamic balance between intramedullary bone formation and bioactive glass resorption. Recent studies of molecular biology have shown that bioactive glass induces a high local turnover of bone formation and resorption. Many osteoporotic fracture patients are candidates for concurrent treatment with bisphosphonates and bioceramic bone graft substitutes. Since osteopromotive silica-based bioactive glasses induce accelerated local bone turnover, adjunct antiresorptive agents may affect the process. However, a recent study showed that an adjunct antiresorptive therapy (zoledronic acid) is even beneficial for bone incorporation of bioactive glass. Based on these observations, bioactive glasses are a promising group of unique biomaterials to act as bone graft substitutes.

Biocompatible Materials↗

Bisphosphonate complications including osteonecrosis of the jaw.

Bisphosphonate therapy has been incorporated in the standard management of patients with multiple myeloma-related bony disease. Although their efficacy in reducing skeletal related events is important in the supportive management of the myeloma patient, post-marketing experience with this class of agents, particularly the more potent intravenous agents pamidronate and zoledronic acid, have raised cautionary notes regarding the potential side effects of these agents. The focus of this session is to review the risk factors, incidence, prevention strategies and management of bisphosphonate-related osteonecrosis of the jaw. In addition, pathophysiology, incidence and monitoring for renal dysfunction during chronic therapy with these agents are reviewed.

Bone Density Conservation Agents↗

HTLV-1 Tax transgenic mice develop spontaneous osteolytic bone metastases prevented by osteoclast inhibition.

One in 20 carriers of human T-cell leukemia virus type 1 (HTLV-1) will develop adult T-cell leukemia/lymphoma (ATL), a disease frequently associated with hypercalcemia, bone destruction, and a fatal course refractory to current therapies. Overexpression of the HTLV-1-encoded Tax oncoprotein under the human granzyme B promoter causes large granular lymphocytic leukemia/lymphomas in mice. We found that Tax+ mice spontaneously developed hypercalcemia, high-frequency osteolytic bone metastases, and enhanced osteoclast activity. We evaluated Tax tumors for the production of osteoclast-activating factors. Purification of Tax+ tumor cells and nonmalignant tumor-infiltrating lymphocytes demonstrated that each of these populations expressed transcripts for distinct osteoclast-activating factors. We then evaluated the effect of osteoclast inhibition on tumor formation. Mice doubly transgenic for Tax and the osteoclast inhibitory factor, osteoprotegerin, were protected from osteolytic bone disease and developed fewer soft-tissue tumors. Likewise, osteoclast inhibition with bone-targeted zoledronic acid protected Tax+ mice from bone and soft-tissue tumors and prolonged survival. Tax+ mice represent the first animal model of high-penetrance spontaneous osteolytic bone metastasis and underscore the critical role of nonmalignant host cells recruited by tumor cells in the process of cancer progression and metastasis.

Animals↗

Vasculature deprivation--induced osteonecrosis of the rat femoral head as a model for therapeutic trials.

EXPERIMENTAL OSTEONECROSIS: The authors' experience with experimentally produced femoral capital osteonecrosis in rats is reviewed: incising the periosteum at the base of the neck of the femur and cutting the ligamentum teres leads to coagulation necrosis of the epiphysis. The necrotic debris is substituted by fibrous tissue concomitantly with resorption of the dead soft and hard tissues by macrophages and osteoclasts, respectively. Progressively, the formerly necrotic epiphysis is repopulated by hematopoietic-fatty tissue, and replaced by architecturally abnormal and biomechanically weak bone. The femoral heads lose their smooth-surfaced hemispherical shape in the wake of the load transfer through the hip joint such that, together with regressive changes of the joint cartilage and inflammatory-hyperplastic changes of the articular membrane, an osteoarthritis-like disorder ensues. THERAPEUTIC CHOICES: Diverse therapeutic options are studied to satisfy the different opinions concerning the significance of diverse etiological and pathogenic mechanisms: 1. Exposure to hyperbaric oxygen. 2. Exposure to hyperbaric oxygen and non-weight bearing on the operated hip. 3. Medication with enoxaparin. 4. Reduction of intraosseous hypertension, putting to use a procedure aimed at core decompression, namely drilling a channel through the femoral head. 5. Medication with vascular endothelial growth factor with a view to accelerating revascularization. 6. Medication with zoledronic acid to decrease osteoclastic productivity such that the remodeling of the femoral head is slowed. Glucocorticoid-related osteonecrosis appears to be apoptosis-related, thus differing from the vessel-deprivation-induced tissue coagulation found in idiopathic osteonecrosis. The quantities of TNF-alpha, RANK-ligand and osteoprotegerin are raised in glucocorticoid-treated osteoblasts so that the differentiation of osteoclasts is blocked. Moreover, the osteoblasts and osteocytes of the femoral cortex mostly undergo apoptosis after a lengthy period of glucocorticoid medication.

Animals↗

The inhibition of RANKL causes greater suppression of bone resorption and hypercalcemia compared with bisphosphonates in two models of humoral hypercalcemia of malignancy.

Humoral hypercalcemia of malignancy (HHM) is mediated primarily by skeletal and renal responses to tumor-derived PTHrP. PTHrP mobilizes calcium from bone by inducing the expression of receptor activator for nuclear factor-kappaB ligand (RANKL), a protein that is essential for osteoclast formation, activation, and survival. RANKL does not influence renal calcium reabsorption, so RANKL inhibition is a rational approach to selectively block, and thereby reveal, the relative contribution of bone calcium to HHM. We used the RANKL inhibitor osteoprotegerin (OPG) to evaluate the role of osteoclast-mediated hypercalcemia in two murine models of HHM. Hypercalcemia was induced either by sc inoculation of syngeneic colon (C-26) adenocarcinoma cells or by sc injection of high-dose recombinant PTHrP (0.5 mg/kg, s.c., twice per day). In both models, OPG (0.2-5 mg/kg) caused rapid reversal of established hypercalcemia, and the speed and duration of hypercalcemia suppression were significantly greater with OPG (5 mg/kg) than with high-dose bisphosphonates (pamidronate or zoledronic acid, 5 mg/kg). OPG also caused greater reductions in osteoclast surface and biochemical markers of bone resorption compared with either bisphosphonate. In both models, hypercalcemia gradually returned despite clear evidence of ongoing suppression of bone resorption by OPG. These data demonstrate that osteoclasts and RANKL are important mediators of HHM, particularly in the early stages of the condition. Aggressive antiresorptive therapy with a RANKL inhibitor therefore might be a rational approach to controlling HHM.

Adenocarcinoma↗

The role of osteoclastic activity in prostate cancer skeletal metastases.

Metastasis of prostate cancer to bone is a common complication of progressive prostate cancer. Skeletal metastases are often associated with severe pain and thus demand therapeutic interventions. Although often characterized as osteoblastic, prostate cancer skeletal metastases usually have an underlying osteoclastic component. Advances in osteoclast biology and pathophysiology have led toward defining putative therapeutic targets to attack tumor-induced osteolysis. Several factors have been found to be important in tumor-induced promotion of osteoclast activity. One key factor is the protein receptor activator of nuclear factor-kappa B ligand (RANKL), which is required to induce osteoclastogenesis. RANKL is produced by prostate cancer bone metastases, enabling these metastases to induce osteolysis through osteoclast activation. Another factor, osteoprotegerin, is a soluble decoy receptor for RANKL and inhibits RANKL-induced osteoclastogenesis. Osteoprotegerin has been shown in murine models to inhibit tumor-induced osteolysis. In addition to RANKL, parathyroid hormone-related protein and interleukin-6 are produced by prostate cancer cells and can promote osteoclastogenesis. Finally, matrix metalloproteinases (MMPs) are secreted by prostate cancer cells and promote osteolysis primarily through degradation of the nonmineralized bone matrix. MMP inhibitors have been shown to diminish tumor establishment in bone in murine models. Thus, many factors derived from prostate cancer metastases can promote osteolysis, and these factors may serve as therapeutic targets. The importance of osteoclasts in the establishment and progression of skeletal metastases has led to clinical evaluation of therapeutic agents to target them for slowing metastatic progression. Bisphosphonates are a class of compounds that decrease osteoclast life span by promoting their apoptosis. The bisphosphonate pamidronate has proven clinical efficacy for relieving bone pain associated with breast cancer metastases and has a promising outlook for prostate cancer metastases. Another bisphosphonate, zoledronic acid, appears to directly target prostate cancer cells in addition to diminishing osteoclast activity at the metastatic site. In addition to bisphosphonates, other novel therapies based on studies that delineate mechanisms of skeletal metastases establishment and progression will be developed in the near future.

Animals↗

Novel therapies for osteoporosis.

Osteoporosis remains a significant clinical problem despite effective therapies. Many patients cannot or will not take currently available therapies. For this reason research continues in search of more effective and more tolerable agents. Anabolic agents offer a unique mechanism of action. The anabolic agents parathyroid hormone and strontium will be discussed. The investigational bisphosphonates ibandronate, minodronate and zoledronic acid may offer the advantage of less frequent dosing. Arzoxifene, bazedoxifene, lasofoxifene, MDL-103,323 and ospemifene are investigational selective oestrogen receptor modulators shown to be effective in animal studies and are now in clinical studies. Tibolone is a tissue-specific steroid that is currently used in Europe for prevention and treatment of osteoporosis. Multiple studies have shown efficacy in improving bone mineral density, but no fracture studies have been conducted to date. While studies of the effect of isoflavones on bone mineral density have been encouraging, a large, multi-centre study in Europe showed no effect of isoflavones on fractures. The newly described agent osteoprotegerin has been shown in early studies to inhibit bone turnover. Other agents with unique mechanisms of action in early development include cathepsin K inhibitors, integrin receptor inhibitors, nitrosylated non-steroidal anti-inflammatory agents and Src inhibitors. The efficacy of statins in bone continues to be debated with no prospective, randomised studies yet to confirm the suggestion of benefit seen in epidemiological studies.

Anabolic Agents↗

Pharmacological management of SAPHO syndrome.

The SAPHO (synovitis, acne, pustulosis, hyperostosis and osteitis) syndrome (SaS) includes different skeletal manifestations such as recurrent multifocal osteomyelitis, osteitis and arthritis, which are frequently associated with different forms of skin pustulosis (palmoplantar pustulosis, pustular psoriasis and severe acne). This syndrome is strictly related to the spondyloarthopathies (particularly to psoriatic arthritis) and many SaS cases fulfil the classification criteria for the spondyloarthopathies. Because SaS is an uncommon disease, current knowledge regarding its therapy is based on limited experiences gained by treating mainly small groups of patients. As a consequence, its treatment is still empiric. Several drugs (including NSAIDs, corticosteroids, sulfasalazine, methotrexate, ciclosporin, leflunomide, calcitonin and so on) have been administered and obtained conflicting results. The use of antibiotics, due to the isolation of Propionibacterium acnes from the bone biopsies of several subjects with SaS, has not represented a turning point in therapy, although some patients are responsive to this treatment. Initial reports concerning the administration of bisphosphonates (pamidronate and zoledronic acid) and of an anti-TNF-alpha agent (infliximab) are very promising for the future. In any case, larger, multi-centre, controlled, double-blind studies are required to emerge from the present pioneering phase.

Acquired Hyperostosis Syndrome↗

Treatment of tumor-induced hypercalcemia: a solved problem?

Less than 25 years ago, tumor-induced hypercalcemia was often a lethal complication of cancer. Nowadays, it can be successfully and easily treated in at least 90% of the cases by rehydration and potent antiosteoclastic bisphosphonates. The standard therapy consists of the administration of 90 mg of pamidronate (Aredia Dry Powder) or more recently, 4 mg of zoledronic acid (Zometa)], which is even more efficient, at least in patients without bone metastases. Recurrent hypercalcemia is nevertheless difficult to control and antibodies against parathyroid-hormone-related protein may prove to be a useful treatment.

Humans↗

Paget's disease of bone.

Paget's disease of bone is a focal disorder of bone remodeling accompanied initially by an increase in bone resorption, followed by a disorganized and excessive formation of bone, leading to pain, fractures and deformities. It exhibits a marked geographical variation in its prevalence. In Brazil it predominantly affects persons of European descent. The majority of the reported cases of the disease in Brazil are from Recife, owing to its peculiar mixed European colonization over approximately four centuries. The etiology is complex and involves both genetic and environmental factors. The disease is often asymptomatic and diagnosis is usually based on biochemical markers of bone turnover, radionuclide bone scan and radiological examination. Bisphosphonates, in particular zoledronic acid, are regarded as the treatment of choice for Paget's disease of bone.

Brazil↗

Ibandronate, an experimental intravenous bisphosphonate for osteoporosis, bone metastases, and hypercalcemia of malignancy.

Ibandronate is an experimental intravenous bisphosphonate under study for the prevention or treatment of osteoporosis and skeletal complications of bone metastases, as well as hypercalcemia of malignancy. To review the data on this drug, PubMed/MEDLINE was searched for pertinent studies in English; data from January 1986-October 2005 were reviewed. In preclinical studies, ibandronate was an extremely potent bisphosphonate compared with its predecessors and was active in all animal models of human postmenopausal and corticosteroid-associated osteoporosis. Similar to other bisphosphonates, ibandronate exhibits antitumor activity and prevents or reduces bone metastases. Forty to fifty percent of the dose is bound to bone; renal clearance of unchanged drug accounts for 70% of total body clearance. Early clinical trials demonstrated efficacy and tolerability of intravenous ibandronate in the prevention or treatment of postmenopausal and corticosteroid-associated osteoporosis when administered once every 3 months. Intravenous ibandronate also reduces skeletal complications of bone metastases, including pain, although the cumulative dose used is much higher than that used in osteoporosis, as the drug is administered every 3-4 weeks. Single doses of intravenous ibandronate are probably also effective in the treatment of hypercalcemia of malignancy. The major tolerability issue with intravenous bisphosphonates is renal safety, thus the drugs generally require infusion (e.g., 0.25 hr for zoledronic acid, 2-24 hrs for pamidronate). However, intravenous ibandronate can be administered by bolus injection over a few minutes without an elevated risk of nephrotoxicity. The experimental intravenous dosage is 2 mg every 3 months for treatment or prevention of osteoporosis, and 2-6 mg every 3-4 weeks or in a single dose for treatment of bone metastases or hypercalcemia of malignancy, respectively. Ibandronate can be used in the presence of severe renal impairment with proper dosage adjustment. The drug will be an interesting addition to the available drugs for osteoporosis, bone metastases, and hypercalcemia of malignancy. Studies of intravenous ibandronate as an adjunctive treatment for cancers that tend to metastasize to bone are under way. Whether intravenous ibandronate will be a therapeutic advance is best answered by randomized, controlled trials. These are ongoing and should provide data with which to make better-informed choices concerning intravenous bisphosphonates.

Bone Density Conservation Agents↗

Bone loss and fracture risk associated with cancer therapy.

BACKGROUND: Cancer patients experience osteoporosis resulting from accelerated loss of bone mineral density (BMD) caused by their treatment. Such bone loss greatly increases the risk for fracture and can have other serious effects on quality of life. METHODS: In the current report, the author focuses on studies of cancer therapy-associated bone loss, its prevalence and pathogenesis, and resulting clinical impact. Options for management and prevention are also reviewed, including treatment guidelines where available. RESULTS: A variety of cancer therapies, including hormonal therapy, chemotherapy, and glucocorticoids, affect gonadal hormone production, which increases bone resorption and decreases BMD. Such bone loss occurs more rapidly and to a greater degree than normal age-related osteoporosis, increases the risk for fracture and other morbidities, and decreases survival. Regular BMD screening and early intervention can prevent further decline in bone density and bone quality. Pharmacologic therapy with oral and i.v. bisphosphonates has been shown to slow bone loss in patients receiving cancer therapy, and the i.v. bisphosphonate zoledronic acid can increase BMD in patients with cancer treatment-related bone loss. Lifestyle changes, including supplementation with calcium and vitamin D, diet, and proper exercise, can also slow the rate of bone loss. CONCLUSIONS: Bone loss associated with various cancer therapies significantly affects bone health. Early initiation of bisphosphonates, when indicated, and lifestyle modification can improve patient outcomes. Education of patients and health care professionals regarding the importance of this complication and effective treatment options is essential.

Antineoplastic Agents, Hormonal↗

Optimizing administration of bisphosphonates in women with postmenopausal osteoporosis.

Bisphosphonates have been approved in the US as oral medication for the treatment of osteoporosis for about 10 years. Efficacy data exists for fracture reduction for the commonly used oral bisphosphonates but not for intravenous formulations. Based on the mechanism of action that appears to allow for longer intervals between doses, it has been possible to extend the treatment choices from the original more demanding daily oral dose to an array of options including oral weekly and more recently monthly treatment (so-called cyclical therapy) and intravenous treatment with various administration regimens. The possibility of treatment with an annual (or less frequent) intravenous administration with zoledronic acid exists. Compliance, adverse effects, and efficacy vary with each administration regimen.

Administration, Oral↗

Advances in prostate cancer chemotherapy: a new era begins.

Prostate cancer continues to be the most common lethal malignancy diagnosed in American men and the second leading cause of male cancer mortality. Over 60 years ago, Huggins and Hodges discovered androgen deprivation as a first-line therapy for metastatic prostate cancer, which leads to remissions typically lasting 2 to 3 years, but in most men prostate cancer ultimately progresses to an androgen-independent state resulting in death due to widespread metastases. Multiple mechanisms of androgen independence have now been documented, including amplification of the androgen receptor as well as signal transduction pathways that bypass the androgen receptor completely. In 2004, two landmark studies demonstrated a survival advantage in androgen-independent prostate cancer patients utilizing docetaxel chemotherapy, setting a new standard of care for this disease. In addition, treatments with the bisphosphonate zoledronic acid and systemic radioisotopes have also been shown to have palliative benefits in this population. Building on these advances, several new traditional chemotherapeutic agents as well as new targeted therapies are under development.

Antineoplastic Agents, Phytogenic↗

Bone health in women with early-stage breast cancer.

Bone health is an increasingly important concern in breast cancer survivors because in postmenopausal women, bone-sparing tamoxifen is being replaced by aromatase inhibitors, whereas in premenopausal women, ovarian suppression is playing an increasing role in adjuvant management. Estrogen reduction resulting from aromatase inhibition and ovarian suppression are associated with loss in bone mineral density (BMD) and an increase in fracture risk. These side effects must be placed in context of the overall risks and benefits seen with these interventions. The American Society of Clinical Oncology has outlined a management strategy for bone health maintenance in breast cancer survivors with early-stage disease that incorporates baseline and ongoing screening for BMD and treatment based on BMD results. Limited but consistent data suggest bisphosphonate therapy represents a treatment option for this condition. A variety of interventions to maintain bone health in breast cancer survivors are undergoing clinical evaluation and include the oral bisphosphonates risedronate and clodronate, the intravenous bisphosphonate zoledronic acid, the receptor activator of nuclear factor-kB ligand inhibitor AMG-162, and the hormonal agent tibolone. Current information suggests bone loss associated with estrogen reduction in breast cancer survivors may represent a preventable and treatable condition. Ongoing clinical trials will definitively evaluate this hypothesis.

Antineoplastic Agents↗

Oral bisphosphonates: A review of clinical use in patients with bone metastases.

BACKGROUND: This study was conducted to review the efficacy and safety of oral bisphosphonates for the treatment of bone metastases in cancer patients. METHODS: Available published clinical studies of oral bisphosphonates in bone metastases from 1980 to the present were identified through a MEDLINE search and from literature references. Data were reviewed for efficacy and safety, with an emphasis on double blind, placebo-controlled studies; clinically relevant endpoints; and appropriate study methodology. RESULTS: Etidronate, alendronate, pamidronate, risedronate, and tiludronate currently are available in the U.S. as either intravenous and/or oral formulations. Although newer bisphosphonates are more potent, oral bioavailability remains < 1%. Oral etidronate has been found to be ineffective in patients with multiple myeloma and prostate carcinoma bone metastases. Pamidronate has been found to be effective in reducing skeletal morbidity associated with bone metastases in both multiple myeloma and breast carcinoma patients when given intravenously, but is ineffective orally in multiple myeloma patients. To the authors' knowledge, there are no double blind, placebo-controlled trials of oral pamidronate in patients with breast carcinoma and bone metastases. Several clinical trials with clodronate, a bisphosphonate that is not available in the U.S., have shown mixed results in patients with myeloma and breast carcinoma bone metastases. To the authors' knowledge, there are no published trials evaluating oral alendronate, tiludronate, or risedronate in patients with metastases to bone. CONCLUSIONS: Oral bisphosphonates do not appear to be as effective as intravenous administration in reducing skeletal complications in patients with metastases to bone lesions. Low oral bioavailability is the most likely reason for this difference. Oral dosing should not be substituted for intravenous administration in the treatment of malignant osteolysis.

Alendronate↗

Gateways to clinical trials.

Gateways to Clinical Trials is a guide to the most recent clinical trials in current literature and congresses. The data in the following tables has been retrieved from the Clinical Studies knowledge area of Prous Science Integrity, the drug discovery and development portal, http://integrity.prous.com. This issue focuses on the following selection of drugs: Abacavir sulfate, abciximab, acetylcysteine, adefovir dipivoxil, alfuzosin hydrochloride, aliskiren fumarate, alosetron hydrochloride, amlodipine besilate, apomorphine hydrochloride, atazanavir, atorvastatin, atorvastatin calcium, atrasentan; Basiliximab, beraprost sodium, bevacizumab, bivalirudin, botulinum toxin type A, botulinum toxin type B; Celecoxib, cetuximab, cilansetron, cilomilast; Daclizumab, darbepoetin alfa, docetaxel, duloxetine hydrochloride; Efalizumab, efavirenz, eletriptan,, entecavir, eplerenone, epoetin alfa, eptifibatide, esomeprazole magnesium. ezetimibe; Filgrastim, finasteride, fluvastatin sodium, follitropin alfa; Gemcitabine, gemeprost, ghrelin (human); HE-2000; Infliximab, 111In-Pentetreotide, interferon alfa-2 alpha, interferon alfa-2 beta, interferon beta-1 alpha, irbesartan, irinotecan hydrochloride; Ketamine hydrochloride; L-778123, lafutidine, lamivudine, lamivudine/zidovudine, latanoprost, letrozole, licofelone, lopinavir, losartan potassium, loxiglumide, lubeluzole; Magnesium sulfate, MeGLA, meloxicam, mycophenolate mofetil; NBI-6024, nelfinavir mesilate, nesiritide, nevirapine, niacin, NN-2211; Octreotide, orlistat; PC-515, peginterferon alfa-2 alpha, peginterferon alfa-2b, pemetrexed disodium, pibrozelesin hydrochloride, pimagedine, pirfenidone, pitavastatin calcium, premarin/trimegestone, prucalopride; Rabeprazole sodium; reboxetine, risedronate sodium, ritonavir, rituximab, rofecoxib, roflumilast, rosuvastatin calcium; Sertraline, sibutramine hydrochloride monohydrate, sildenafil citrate, spironolactone, stavudine; Tacrolimus, tadalafil, tamsulosin hydrochloride, tenecteplase, thalidomide, travoprost; Valsartan; Zoledronic acid monohydrate.

Clinical Trials as Topic↗

[How to treat tumor-induced hypercalcemia].

Cancer hypercalcemia can now be easily and successfully treated in at least 90% of the cases. Standard therapy consists in rehydration and administration of bisphosphonates, namely pamidronate (90 mg), or more recently zoledronic acid (4 mg) which is more potent. When available, ibandronate constitutes an interesting alternative especially that this compound is apparently less nephrotoxic. Recurrent hypercalcemia remains difficult to control but often occurs in quite advanced stages of the neoplastic disease. In the future, antibodies against PTHrP could be useful in well selected patients. Prevention of cancer hypercalcemia is one of the objectives of long-term therapy with bisphosphonates in patients with bone metastases. They reduce the incidence of all complications of metastatic bone disease, including cancer hypercalcemia.

Diphosphonates↗