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Epirubicin is part of a group of medications called anthracyclines. 5.3.1 Spectrum and antibiotic resistance Patients with a complicated UTI, both community and hospital-acquired, tend to show a diversity of microorganisms with a higher prevalence of resistance against antimicrobials, and higher rates of treatment failure if the underlying abnormality cannot be corrected. However, the presence of a resistant strain on its own is not enough to define a complicated UTI. Urinary abnormality anatomical or functional ; or the presence of an underlying disease predisposing to a UTI is also necessary. A broad range of bacteria can cause a complicated UTI. The spectrum is much larger than with an uncomplicated UTI and the bacteria are more likely to be antibiotic-resistant especially in a treatment-related complicated UTI ; than those isolated in an uncomplicated UTI. Escherichia coli, Proteus, Klebsiella, Pseudomonas, Serratia spp. and enterococci are the usual strains found in cultures. Enterobacteriaceae predominate 60-75% ; 6-8 ; , with E. coli as the most common pathogen, particularly if the UTI is a first infection. Otherwise, the bacterial spectrum may vary from time to time and from one hospital to another. 5.3.2 Complicated UTIs associated with urinary stones In the subset of complicated UTIs related to urinary stones, the frequency of E. coli and enterococci infection seems less important pathogens. In contrast, a greater portion of Proteus spp. and Pseudomonas 9 ; is found. Of the urease-producing organisms, Proteus, Providencia, Morganella spp., and Corynebacterium urealyticum are predominant, but Klebsiella, Pseudomonas, Serratia and staphylococci are also urease producers to a certain extent. Among patients with staghorn calculus disease, 88% were found to have a UTI at the time of diagnosis, with 82% of patients infected with urease-producing organisms 10 ; . The enzyme, urease, splits urea into carbon dioxide and ammonia. The resulting increase in ammonia in the urine injures the glycosaminoglycan GAG ; layer, which in turn increases bacterial adherence 11 ; and enhances the formation of struvite crystals. These aggregate to form renal stones and incrustations on urinary catheters 12 ; . The pathogenic potential of coagulase-negative staphylococci and non-group D streptococci is controversial 13, 14 ; . Under certain circumstances, such as the presence of a stone or foreign bodies, staphylococci can be relevant pathogens. Otherwise, staphylococci are not so common in complicated UTIs 0-11% ; , according to published reports 6, 15 ; . 5.3.3 Complicated UTIs associated with urinary catheters In catheter-associated UTIs, the distribution of micro-organisms is similar 16 ; , and biofilm has to be considered. Antimicrobial therapy may only be effective in the early stages of the infection 15 ; . For more details see chapter 6 on catheter associated UTI.
Late Proterozoic c. 700-680 Ma ; i n t continental r i f leading to the f o r mation of oceanic lithosphere, j u s t preceded- c. 720-700 Ma ; by a tectonothermal event in the r i f facies. Late Proterozoic c. 680-640 Ma ; convergence producing the western ensialic magmatic arc and imbrication of the oceanic and continental lithosphere during PanAfrican I orogenesis. Late Proterozoic Early Cambrian c. 640-550 Ma ; u p l and cooling of the Pan-African I orogen and deposition of basal t i l and flysch sequences in the foreland. Cambrian c. 550-525 Ma ; Pan-African II deformation and metamorphism which ranges from intense in the Rokelides decreasing in intensity northwards in the Bassarides and Central Mauritanides and dying out in the northern Mauritanides. At the same time, molasse was deposited in the foreland. Cambrian-Late Devonian c. 525-360 Ma ; deposition of clastic successions in the Taoudeni and Bove basins on the craton. Early Carboniferous c. 325-300 Ma ; Variscan reactivation of the Mauritanide orogen by folding and thrusting accompanied by variable grades of metamorphism. This was related to the c o l Gondwana and Laurentia which caused further convergence between the western continental block and the West African craton. Early Permian c. 300-275 Ma ; local duct i l e deformation along faults bordering the western coastal block during the terminal stages of c o.

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Jeff Berry Editor publications tpan To learn more about salvage therapy visit aidsinfonet , TheBody. com, and aidsinfo.nih.gov. 7.
Phase III trials, nonpegylated liposomal doxorubicin-containing regimens led to a significantly higher response rate than with conventional doxorubicin-containing therapy 31% versus 11%, respectively; p .04 ; [36]. Time to treatment failure was also significantly longer in the experimental arm 4.2 versus 2.1 months, respectively; p .01 ; , presumably because of the significantly lower incidence of cardiac events. However, there was no significant difference in TTP or OS duration. In another retrospective analysis, the type of prior adjuvant therapy did not appear to influence response to cyclophosphamide, epirubicin, and 5-fluorouracil CEF ; [37]. Similarly, Gennari et al. [38] found no relationship between prior adjuvant anthracycline exposure and response rate in their retrospective study of first-line epirubicin plus paclitaxel. However, the complete response rate was significantly lower in patients who had received prior adjuvant anthracyclines than in chemotherapy-naive patients after adjustment for age and site. As in the analysis by Venturini et al. [37], there was no significant difference in the median progression-free survival PFS ; and OS times between anthracycline-pretreated and chemotherapy-naive patients, suggesting that prior anthracycline based adjuvant therapy does not preclude the use of anthracyclines in the first-line setting. However, the authors noted that patients included in this study had received only a relatively low dose of adjuvant anthracyclines 360 mg m2 epirubicin and 280 mg m2 doxorubicin ; and therefore it may not be appropriate to extend these conclusions to the general population of anthracycline-pretreated patients. In addition, the limitations of a retrospective analysis must be considered.
J9140 J9150 J9151 J9160 J9165 J9170 J9178 J9180 J9181 J9182 J9185 J9190 J9200 J9201 J9202 J9206 J9208 J9209 J9211 J9212 J9213 J9214 J9215 J9216 J9217 J9218 J9219 J9230 J9245 J9250 J9260 J9263 J9265 J9266 J9268 J9270 J9280 J9290 J9291 J9293 J9300 J9310 J9320 J9340 Dacarbazine 200 MG inj Daunorubicin, 10 mg Daunorubicin citrate liposome Daunoxome ; 10 mg Denileukin diftitox, 300 mcg Ontak ; Diethylstilbestrol diphosphate Stilphostrol ; 250 mg injection Docetaxel Taxotere ; 20 mg Inj, epirubicin hcl, 2 mg Epirubicin HCl injection 50 mg Ellence ; Etoposide 10 MG inj VePesid ; Etoposide 100 MG inj Fludarabine phosphate inj 50 mg Fludara ; Fluorouracil injection 500 mg Floxuridine injection 500 mg Gemcitabine HCl 200 mg Goserelin acetate implant Zoladex ; per 3.6 mg Irinotecan injection 20 mg Ifosfomide injection 1 Gm Mesna injection Mesnex ; 200 mg Idarubicin hcl 5 mg Interferon alfacon-1, recombinant, 1 mcg Interferon alfa-2a inj, 3 million units Interferon alfa-2b inj 1 million units Interferon alfa-n3 inj human leukocyte derived ; 250, 000 IU Interferon gamma 1-b inj, 3 million units Leuprolide acetate suspension Lupron Depot ; for depot suspension, 7.5 mg Leuprolide acetate injection Lupron ; per 1 mg Leuprolide acetate implant, 65 mg Mechlorethamine hcl inj nitrogen mustard ; , Mustargen 10 mg Inj melphalan hcl 50 MG Methotrexate sodium inj 5 mg Methotrexate sodium inj 50 mg Oxaliplatin Paclitaxel injection 30 mg Pegaspargase single dose vial Pentostatin injection 10 mg Plicamycin Mithracin ; inj 2.5 mg Mitomycin 5 MG inj Mitomycin 20 MG inj Mitomycin 40 MG inj Mitoxantrone hcl 5 MG Genetuzumab ozogamicin, 5 mg. Rituximab 100 mg Streptozocin 1 GM Thiotepa 15 mg Page 16 and eplerenone.
Indicator Input 1. Expenditure on hospital staff as percentage of total hospital expenditure 2. Expenditure on drugs for hospital use as percentage of total hospital expenditure 3. Expenditure on hospital maintenance as percentage of total hospital expenditure 4. Us eable beds per 1000 people 5. Hospital expenditure per person Process 6. Percentage of hospitals with operational hospital board 7. Percentage of hospitals with appointed not acting ; CEO in place 8. Percentage of hospitals with business plan agreed with provincial health department 9. Percentage of hospitals with up to date ass et register 10. Maximum permitted value of procurement at discretion of hospital CEO without reference to provincial level Output 11. Separations per 1000 people 12. Patient day equivalents per 1000 people 13. PHC visits as % of total outpatient visits 14. Patient fee income per separation Quality 15. Percentage of hospitals in facility audit condition 4 or 5 16. Percentage of hospitals that have conducted and published a patient satisfaction survey in last 12 months 17. Percentage of hospitals with designated offi cial responsible for coordinating quality management 18. Percentage of hospitals with clinical audit M&M ; meetings at least once a month Efficiency 19. Average length of stay 20. Bed utilisation rate bas ed on useable beds ; 21. Expenditure per patient day equivalent Outcome 22. Case fatality rate for surgery separations. Peak Name, Retention Time, and Window columns ; Most frequently, peaks are identified via the retention time. Enter the names of all peaks to be identified in the Peak Name column, line by line. Assign a nominal retention time to each peak by entering a retention time value in the corresponding peak table column manually creating a peak table ; . Or: Select the Autogenerate Peaktable command on the Edit menu to automatically generate a peak table based on the current sample. In this case, the system includes all peaks integrated ! ; in the current sample into the peak table. As peak name, a combination of sequence name and consecutive number is assigned. The values to be entered in the Retention Time and Window columns are determined again using the individual peak's maxima. All other entries are replaced by default values automatically creating a peak table and epogen.

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149; epirubicin is a cancer antineoplastic ; medication.
Editorial - The first decade F. Cavalli Review - Dendritic cells: A novel therapeutic modality S.A. Luykx-de Bakker et al. Special article - International consensus conference on high-dose therapy with hematopoietic stem cell transplantation in aggressive non-Hodgkin's lymphomas: Report of the Jury M.A. Shipp, M.D. Abeloff, K.K Antman et al. Rapid publication - Phase I trial of the combination of daily estramustine phosphate and intermittent docetaxel in patients with metastatic prostate carcinoma W. Kreis, D. R. Budman, J. Fetten et al. Original articles - Misunderstanding in cancer patients: Why shoot the messenger M. Gattellari, P. N. Butow. M. H. N. Tattersail et al. - Cardiac effects of multicycle high-dose epirubicin and cyclophosphamide with progenitor cell support in women with poor prognosis breast cancer R. L. Basser, R. Abraham, L. Bik To et al. Bone marrow scintigraphy using technetium-99m antigranulocyte antibody in malignant lymphomas T. Krause, N. Eisenmann, M. Reinhardt et al. Neoadjuvant chemotherapy for operable breast carcinoma larger than 3 cm: A unicentre randomized trial with a 124-month median follow-up L. Mauriac, G. MacGrogan, A. Avril et al. Fludarabine, cyclophosphamide, and dexamethasone combination is effective in pretreated low-grade nonHodgkin's lymphoma M. Laizarino, E. Orlandi, M. Montillo et al. Reduced health-related quality of life among Hodgkin's disease survivors J. H. Loge, A. Foss Abrahamsen, O. Ekeberg et al. Is primary CNS lymphoma really becoming more common? A population-based study of incidence, clinicopathological features and outcomes in Alberta from 1975 to 1996 D. Hao, L.M. DiFrancesco, P.M.A. Brasher et al. The potential of platinum-DNA adduct determination in ex vivo treated tumor fragments for the prediction of sensitivity to cisplatin chemotherapy M.J.P. Welters, B.M.J. Braakhuis, A.J. Jacobs-Bergmans et al. Clinical case - Chemotherapy for advanced pancreatic cancer: It may no longer be ignored S. Cascinu et al. Short reports - Up-regulated pyrimidine nucleoside phosphorylase in breast carcinoma correlates with lymph node metastasis K. Mimori et al. - Docetaxel and cisplatin: An active regimen in patients with locally advanced, recurrent or metastatic squamous cell carcinoma of the head and neck. Results of a phase II study oftheEORTC P. Schoffski et al. Letters to the editor - Treatment of soft tissue sarcomas: High dose ifosfamide or combination of ifosfamide and etoposide? S. Yalcin & reply J. M. Buesa - Oral ipriflavone treatment for elderly patients with resistant acute leukemias L. Pagano et al. - Telomerase or telomersyn . H. Giillii et al and epoprostenol. These results are the first to demonstrate a role for SARA in ameliorating endothelial function and alleviating free radical stress in early atherosclerosis and supports prior studies that blockade of MR may be beneficial.7, 8. Laboratories of microbiology, children's cancer research foundation, and department of pathology, harvard medical school, children's hospital medical center, boston, massachusetts; and department of chemistry, brandis university, waltham, mass and eprosartan. Schwaner, T. D. and Sarre, S. D. 1990. Body size and sexual dimorphism in mainland and island tiger snakes. Journal of Herpetology 24: 320-322. Sears, M.W. and Angilletta, Jr M. J. 2003. Life-history variation in the sagebrush lizard: phenotypic plasticity or local adaptation? Ecology 84: 16241634. Thomson, W. L., White, G. C. and Gowan, G. V. 1998. Monitoring vertebrate populations. Academic Press. White, G. C. 1992. Do pellet counts index white-tailed deer numbers and population change? Journal of Wildlife Management 56: 611-612. Whittaker, R. J. 1998. Island Biogeography: Ecology, Evolution and Conservation. Oxford: Oxford Univ. Press. Wikelski, M. and Trillmich, F. 1997. Body size and sexual size dimorphism in marine iguanas fluctuate as a result of opposing natural and sexual selection, an island comparison. Evolution 51: 922-936. Wikelski M., and Romero L. M. 2003. Body size, performance and fitness in Galapagos marine iguanas. Integrative and Comparative Biology 43: 376-386. Wikelski, M., Carrillo, V. and Trillmich, F. 1997. Energy limits to body size in a grazing reptiles, the Galapagos marine iguana. Ecology 78: 2204-2217. New combinations New combinations using gemcitabine, topotecan1 or anthracyclines are currently being investigated. To date, only one full report has been published comparing paclitaxel carbopatin with paclitaxel epirubicin carboplatin. However, only results of response are available CR 55% vs. 65% respectively; survival results are still awaited. Clinical safety Paclitaxel has been in clinical use for more than 10 years for treatment of patients with ovarian carcinoma, breast carcinoma, NSCLC, and AIDS-related Kaposi's sarcoma. Its safety profile has remained consistent and is well known, being summarised in various standard manuals and review articles Eisenhauer & Vermorken 1998, Dollery 1999, Fan 1999, Ginsberg et al. 1997, Sweetman 2002, Spencer & Faulds 1994, Sweetman 2002, Wiseman & Spencer 1998 ; . The most common adverse events are neutropenia, anaemia, peripheral neuropathy, myalgia arthralgia, mucositis, and alopecia Wiseman & Spencer 1998 ; . In addition, thrombocytopenia, infection, cardiovascular events, hepatic abnormalities increases in bilirubin, alkaline phosphatase, aspartate aminotransferase ; mild gastrointestinal effects, and hypersensitivity reactions have been reported Eisenhauer & Vermorken 1998, Spencer & Faulds 1994 ; . Detailed clinical safety data from the publications of the pivotal studies with Taxol in ovarian cancer and NSCLC and supportive safety data from literature review on on paclitaxel-containing combinations in 20 additional studies are provided in section 8 and erbitux. 500 M anthracyclines then showed that the conversion of EPI to EPIOL occurred with higher Km and lower Vmax values than the conversion of DOX to DOXOL; hence, the catalytic efficiency Vmax Km ; with which the soluble fraction reduced EPI to EPIOL was one order of magnitude lower than that determined for the reduction of DOX to DOXOL Table IV ; . Doxorubicinol and EPIOL were measured also in the presence of tolrestat and quercetin, general inhibitors of aldo keto- or carbonylreductases, respectively 47 ; . Both tolrestat and quercetin diminished the formation of DOXOL and EPIOL; however, the IC50 values of tolrestat always proved 4-5 times lower than those of quercetin, suggesting that both DOX and EPI were metabolised primarily by aldo keto reductases see also Table IV ; . Thus, EPI formed less alcohol metabolite than DOX mainly due to its reduced catalytic specificity for cytoplasmic aldo keto reductases. DISCUSSION Several assays showed that EPI exhibited limited one-electron reduction and formation of .O2 or H2O2 in the membrane fraction of human myocardial samples. Epirubicin also exhibited limited two-electron reduction and conversion to its alcohol metabolite in the soluble fraction of these samples. The experimental model was tailored to avoiding excess drug concentration and an acute irreversible tissue damage which could have influenced the mechanisms and levels of formation of anthracycline metabolites: accordingly, human myocardial strips did not release protein markers after anthracycline .administration cfr. Results, Section I ; , and O2 dependent inactivation of mitochondrial aconitase was reverted by cysteine and ferrous ammonium sulfate cfr. Table III ; . Moreover, there was an only marginal diffusion and or .accumulation of O2 and H2O2 in the soluble fraction; hence, ROS and secondary alcohol metabolites could not act in concert and induce toxic changes of cytoplasmic aconitase activity cfr. Table III ; . These settings therefore offered an opportunity to characterize the inherent capability of human heart to promote one- or two- electron reduction of DOX or EPI. The molecular determinants of the reduced conversion of EPI to ROS were characterized also through experiments with cell-free systems or H9c2 cardiomyocytes. This approach demonstrated that EPI could not form ROS due to its protonation-sequestration in cytoplasmic acid organelles and consequent limited access to mitochondrial one-electron reductases which converted DOX to ROS via a semiquinone intermediate. Accordingly, the vacuolar H + ATPase inhibitor bafilomycin diminished the vesicular sequestration of EPI and increased its localization to mitochondria and formation of ROS cfr. Figures 4-8 ; . How precisely the cytoplasmic organelles of cardiomyocytes sequestered EPI but not DOX remains to established. The pKa values of DOX and EPI are very similar 8.34 vs 8.08 ; 48 ; and would anticipate a complete protonation of either anthracycline in the acidic environment of lysosomes, endosomes, or vesicles of the transGolgi network pH 5, ~6.5 or ~6, respectively ; 40 ; . Tentative explanations can be put forward by considering that molecules with similar pKa values may exhibit different lipophilicity, with the more lipophilic molecule showing an improved binding to organellar membranes and a higher propensity to form aggregates in the vesicles 49 ; . This might very well be the case of EPI, which exhibits higher lipophilicity than DOX when assessed by octanol-water partitioning 50 ; . Re-examination of the vacuoles of cardiomyocytes sequentially exposed to bafilomycin and anthracyclines lent support to this possibility. In fact, these vacuoles always contained minor residues of EPI but not of DOX, as if EPI were more effective than DOX at diffusing into the vacuoles and forming aggregates therein cfr. Figure 7, insets A-B ; . In the presence of an active vacuolar H + -ATPase one such mechanism would increase the amount of EPI liable to protonation, and would generate a driving force for the diffusion and sequestration of more and more EPI inside the vesicles. Information obtained with H9c2 cardiomyocytes was successfully translated into experiments where bafilomycin increased DCF-detectable .H2O2 formation and O2 -dependent inactivation of mitochondrial aconitase also in human myocardial strips exposed to EPI cfr. Figure 9 A-B and Table III ; . These findings, and the lack of effect of bafilomycin on DOX-dependent H2O2 formation or aconitase inactivation, strongly suggest that a protonation-sequestration mechanism would selectively limit the reductive!

Necrosis, consistent with acute damage secondary to cyclophosphamide and or epirubicin. Two patients developed evidence of cardiac failure in association with a marked fall in LVEF after completion of therapy and a third woman developed radiological signs of cardiac failure but was asymptomatic. At completion of chemotherapy, the LVEF was less than 50% in only one of these patients, although for the three patients it had fallen by 11%, 8% and 14%. One patient received radiotherapy to the left chest wall while the other two did not receive radiotherapy. The signs of cardiac failure were detected approximately two years after the third cycle of chemotherapy in all three patients. All patients initially responded to medical therapy with angiotensin-converting enzyme inhibitors, diuretics and or digoxin. However, one patient, in whom the LVEF fell to 23%, developed progressive CHF despite antifailure medication and died 44 months after diagnosis without evidence of relapse of breast cancer. One patient with a LVEF of 20% developed relapse of breast cancer and had no further radionuclide tests. The asymptomatic patient had recovery of her LVEF from 38% to 48% over the subsequent 12 months. 4% of women with breast cancer treated with adjuvant epirubicin 100 tng m2 plus cyclophosphamide 500 mg m2 experienced CHF, while this occurred in 0.4% given epirubicin 60 mg m 2 [28]. De Graaf et al. reported on the cardiotoxicity of various high-dose chemotherapy regimens that were given to women with breast cancer after standard dose induction therapy [29]. All patients received radiotherapy either prior to or after HDC. The therapy consisted of an anthracycline-based induction regimen followed by a cyclophosphamide or mitoxantrone-based ablative regimen. The patients were assessed at least one year after treatment with clinical examination, ECG and radionuclide studies. Of the 27 evaluable patients, one developed clinical evidence of CHF and four had a sub-normal LVEF without clinical sequelae. This was a small study in which only 27 of the original cohort of 86 women had been followed for longer than 12 months. Therefore, this report represents a limited subgroup of those at risk from the treatment and the true incidence of cardiotoxicity cannot be accurately gauged. One patient experienced acute myocardial necrosis, an uncommon but well recognized complication of both high-dose cyclophosphamide [30] and high-dose anthracycline [31]. The patient who died of this complication had no pre-existing cardiac risk factors and, although conflicting reports exist [32], cyclophosphamide probably does not augment doxorubicin-induced cardiac damage [33]. In a heterogeneous group of 63 patients who underwent HDC with bone marrow transplantation, the incidence of acute myocarditis was 5% [30]. A single event in the current study of 99 patients was therefore not greater than might have been expected. Two patients developed clinical evidence of chronic cardiac dysfunction, although 38% of women experienced at least one measure of LVEF that was below normal and 31% had at least one measure that was 15% lower than the pretreatment value. While others have identified these characteristics as being predictive for the subsequent development of CHF [27, 34], this has not so far been the case in the period of observation in our study. This may be due to the relatively modest follow-up period, although the majority of patients who develop CHF will show some evidence of cardiac dysfunction within 12 months of cessation of therapy [12, 27, 35]. In addition, measurement of left ventricular function does not identify patients who later develop significant cardiac dysfunction [36] and is not necessarily predictive of the clinical course of established CHF [37]. For example, resting radionuclide scans have been observed to remain abnormal for over two years after anthracycline therapy in asymptomatic patients [34]. In other patients, compensatory mechanisms may allow the maintenance of an apparently normal left ventricular ejection fraction until the changes of cardiomyopathy are well established [38]. Radiotherapy to the left chest did not increase the risk of cardiac damage. While multivariate analysis has identified chest wall irradiation as an independent risk factor for anthracycline-induced cardiomyopathy [33], efforts were made to limit the cardiac exposure of pa and ergotamine. Multiple Myeloma 203.0 Arsenic Trioxide 555, Bortezomib, 3 Carmustine, Cyclophosphamide, Dexamethasone, 1 Doxorubicin, Epoetin Alfa3, Etoposide, 1Interferon Alpha 2a, 2b, Lomustine, 1 Melphalan, Pamidronate Disodium, Prednisone, 1 Procarbazine, 1 Thalidomide, Vincristine, Zoledronic Acid1 Myelodysplastic Syndromes 238.7 Amifostine, 1 Arsenic Trioxide 555, 5 Azacitidine, Cytarabine, 1 Epoetin Alfa, Filgrastim, Sargramostim, Topotecan Hydrochloride1 Neuroblastoma 160. to 194. Cisplatin, 1 Carboplatin, 3 xx Cyclophosphamide, Dacarbazine, 3 Daunorubicin, 1 Doxorubicin, Etoposide, Ifosfamide, 1 Teniposide, 1 Vinblastine, 1 Vincristine Neutropenia 288.0 Filgrastim Chemotherapy-induced, assoc. with bone marrow transplant ; , Pegfilgrastim, Sargramostim assoc. with bone marrow transplant, chemotherapy-induced, including chemotherapy assoc.with acute myelogenous leukemia ; Non-Hodgkin's Lymphoma 200. , 202. Aldesleukin 555, Amifostine, Asparaginase, Bleomycin, Carboplatin, 1 Carmustine, Chlorambucil, Cisplatin, Cladribine, Cyclophosphamide, Cytarabine, Daunorubicin, 1 Dexamethasone, 3 Doxorubicin, Epirubicin Hydrochloride, 1 Etoposide, Fludarabine Phosphate, Gemcitabine Hydrochloride1, Ibritumomab tiuxetan, Ifosfamide, Interferon Alpha 2a, 2b, Leucovorin, 1 Mechlorethamine, Mercaptopurine, Methotrexate, Mitoxantrone, 1 Prednisone, Procarbazine, Rituximab, Teniposide, 1 Tositumomab, Iodine I-131, Uracil Mustard, Vinblastine, Vincristine and epirubicin.

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Identical to that known for the formaldehyde-mediated Adriamycin lesion Ref. 47; Fig. 6, A and B ; . Collectively, these two independent results confirm that both lesions formaldehyde-mediated and HMTA-mediated lesions ; are actually the same lesion. Formaldehyde directly activates Adriamycin, resulting in drug-DNA adducts, whereas release of formaldehyde from the hydrolysis of HMTA activates Adriamycin, resulting in formation of the same formaldehyde-mediated Adriamycin-DNA adducts. Other Anthracyclines. The preferential release of formaldehyde at pH 6.4 compared with pH 7.4 ; resulted in an increase in adduct formation of Adriamycin, daunomycin, and idarubicin at the lower pH value. The methoxy group of Adriamycin and daunomycin therefore appears to enhance drug activation at pH 7.4 compared with idarubicin. The addition of the hydroxyl group on Adriamycin absent on daunomycin ; does not significantly contribute to formation of drug-DNA adducts at either pH or to the stability of the adducts the half-lives of the daunomycin and AdriamycinDNA adducts were essentially identical; Ref. 19 ; . Idarubicin exhibited an approximate 9-fold increase in adduct formation at pH 6.4 compared with pH 7.4, but it is not clear why the methoxy group should have any influence on Schiff base chemistry or formation of the drug-DNA aminal -N-CH2-NH- ; linkage. Epirubicin does not appear to form a significant level of drug-DNA adducts, and this relates to the fact that in the presence of formaldehyde, an initial cyclization to a fivemembered oxazoline ring forms, similar to that present in doxoform 21 ; , which subsequently undergoes a nucleophilic ring opening, leading to the aminal bridge found in the and erlotinib.

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400 filmtab , echothiophate iodide ophthalmic , ed chlor-tan , ed chlorped , efidac-24 chlorpheniramine , elavil , ellence , emblon , empro , ena 713 , enablex , enalapril , enalaprilat , endep , endocodone , ephedra , ephedrine , epi ez pen , epinephrine , epipen 2-pak , epipen auto-injector , epipen jr 2-pak , epipen jr auto-injector , epirubicin , epitol , equanil , equetro , ery-tab , eryc , eryped , eryped 200 , eryped 400 , erythrocin lactobionate , erythrocin stearate filmtab , erythrocot , erythromycin , erythromycin base , erythromycin estolate , erythromycin ethylsuccinate , erythromycin lactobionate , erythromycin stearate , escitalopram , eserine sulfate ophthalmic , eskalith , eskalith-cr , eszopiclone , eth-oxydose , ethanol , ethosuximide , ethyl alcohol , eucarbon , exelon , exubera , exubera combination pack 12 , exubera combination pack 15 , exubera kit , ezchar , factive , fastin , fazaclo , fentanyl , fentanyl topical , fentora , fexmid , fk506 , flavoxate , flecainide , flexeril , flexoject , flexon , floxin , floxin , fluothane , fluoxetine , fluoxetine extended release , fluphenazine , fluphenazine decanoate , fluphenazine enanthate , fluphenazine hydrochloride , flurazepam , focalin , focalin xr , foradil aerolizer , formoterol , fortamet , fosinopril , fosphenytoin , galantamine , galantamine extended release , gemifloxacin , genahist , genox , genrx tamoxifen , geodon , gleevec , glimepiride , glipizide , glipizide extended release , glipizide xl , glucophage , glucophage xr , glucotrol , glucotrol xl , glumetza , glyburide , glyburide micronized , glycopyrrolate , glynase prestab , glyset , guanadrel , guanethidine , halcion , halothane , healthstream activated charcoal , hismanal , histaject , histex ct , histex i e , histex pd , histex pd 12 , homatropine , humalog , humalog kwik pen , humalog pen , humorsol ocumeter , humulin l , humulin n , humulin n pen , humulin r , humulin r concentrated ; , humulin u , hydramine , hydramine compound , hydramine cough syrup , hydrate , hydromorph contin , hydromorphone , hydromorphone extended release , hydrostat ir , hydroxyzine , hydroxyzine hydrochloride , hydroxyzine pamoate , hylorel , hyoscyamine , hyoscyamine extended release , hyosol , hyospaz , hyosyne , hyrexin , hytrin , hyzine , ib-stat , idamycin pfs , idarubicin , iletin ii lente pork , iletin ii nph pork , iletin ii regular pork , iletin lente , iletin nph , iletin regular , ilosone , ilotycin gluceptate , imatinib , imipramine , imipramine pamoate , imodium , imodium a-d , imodium a-d ez chews , imodium a-d new formula , imotil , infumorph , insta-char , insulin , insulin analog , insulin aspart , insulin aspart protamine , insulin detemir , insulin glargine , insulin glulisine , insulin inhalation, rapid acting , insulin isophane , insulin lente pork , insulin lispro , insulin lispro protamine , insulin purified nph pork , insulin purified regular pork , insulin regular , insulin zinc , insulin zinc extended , insulin, lente , insulin, nph , insulin, ultralente , intropin , invega , ionamin , ionsys , iopidine , ismelin , isoetharine , isoflurophate ophthalmic , isoproterenol , isopto carbachol , isopto carpine , isuprel hcl , isuprel mistometer , j-tan , j-tan pd , bragg's medicinal charcoal , kadian , kao-paverin , kaopectate caplet , karbons , kemadrin , ketalar , ketamine , ketek , ketek pak , klonopin , klonopin wafer , l-hyoscyamine , lamisil , lantus , lantus opticlik cartridge , lantus solostar pen , lapatinib , largon , lariam , larodopa , lente insulin , levalbuterol , levaquin , levaquin leva-pak , levbid , levemir , levemir flexpen , levemir innolet , levemir penfill , levitra , levo-dromoran , levocetirizine , levodopa , levofloxacin , levonordefrin , levoprome , levorphanol , levrix , levsin , levsin sl , levsinex sr , lexapro , librium , lindane topical , liqui-char , liqui-char with sorbitol obsolete ; , lisdexamfetamine , lisinopril , lithium , lithium carbonate , lithium carbonate extended release , lithium citrate , lithobid , lithonate , lithotabs , lodrane 12 hour , lodrane 24 , lodrane xr , loperamide , lorazepam , lorelco , lotensin , loxapine , loxitane , loxitane c , loxitane im , ludiomil , lunesta , lyrica , m-eslon , m-oxy , o.

Table 1. Baseline Outcome Scores and Score Change Over 5 Years in the 2 Treatment Groups and ertapenem.
Summary Purpose: A phase III study was performed in patients with metastatic breast cancer MBC ; to evaluate the effect on response rate and survival of a doubling of the epirubicin dose intensity. Patients and methods: Four hundred fifty-six patients were randomised to receive either epirubicin 100 mg m 2 or 50 mg m 2 in combination with 5-FU 500 mg m 2 ; and cyclophosphamide 500 mg m 2 ; FEC 100 vs. FEC 50 ; i.v., every 21 days for a maximum of six cycles eight in case of CR ; . Results: Of 456 patients, 390 were evaluable for efficacy. Objective response CR + PR ; was seen in 57% FEC 100 ; vs. 41% FEC 50 ; of the evaluable patients P 0.003 ; . The CR rate was higher in the FEC 100 arm 12% vs. 7%, P 0.07 ; . FEC 100 produced significantly higher response rates in patients with visceral localisation 50% vs. 34%, P 0.011 ; and in patients with more than two metastatic organ sites 64% vs. 37%, P 0.001 ; . Median time to progression 7.6 vs. 7 months ; and overall survival 18 months vs. 17 months ; were similar and eplerenone. Of high-dose carboplatin and etoposide with autologous bone marrow transplantation. J Clin Oncol 1989; 7: 932-9. Ibrahim A, Zambon E, Bourhis JH et al. High-dose chemotherapy with etoposide, cyclophosphamide and escalating dose of carboplatin followed by autologous bone marrow transplantation in cancer patients. A pilot study. Eur J Cancer 1993; 29A: 1398-403. Motzer RJ, Gulati SC, Tong WP et al. Phase I trial with pharmacokinetic analyses of high-dose carboplatin, etoposide and cyclophosphamide with autologous bone marrow transplantation in patients with refractory germ cell tumors. Cancer Res 1993; 53: 3730-5. Lotz JP, Machover D, Malassagne B et al. Phase I--II study of two consecutive courses of high-dose epipodophyllotoxin, ifosfamide and carboplatin with autologous bone marrow transplantation for treatment of adult patients with solid tumors. J Clin Oncol 1991; 9: 1860-70. Siegert W, Beyer J, Strohscheer I et al. High-dose treatment with carboplatin, etoposide and ifosfamide followed by autologous stem-cell transplantation in relapsed or refractory germ cell cancer A phase I II study. J Clin Oncol 1994; 12: 1223-31. Mandanas RA, Broun ER, Nichols CR et al. Phase I II dose escalation study of carboplatin CBDCA ; and etoposide VP16 ; with autologous marrow support done in tandem for refractory germ cell tumors. Proc Assoc Cancer Res 1993; 12: 240 Abstr ; . Motzer RJ, Mazumdar M, Bosl GJ et al. High-dose carboplatin, etoposide, and cyclophosphamide for patients with refractory germ cell tumors: Treatment results and prognostic factors for survival and toxicity. J Clin Oncol 1996; 14: 1098105. Broun ER, Nichols CR, Tricot G et al. High-dose carboplatin VP-16 plus ifosfamide with autologous bone marrow support in the treatment of refractory germ cell tumors. Bone Marrow Transplant 1991; 7: 53-6. Fields KK, Elfenbein GJ, Lazarus HM et al. Maximum-tolerated doses of ifosfamide, carboplatin, and etoposide given over 6 days followed by autologous stem-cell rescue: Toxicity profile. J Clin Oncol 1995; 13: 323-32. Broun ER, Gonin R, Nichols CR, Einhorn LH. Retrospective analysis of carboplatin area under the curve AUC ; in relation to toxicity and survival in testis cancer patients undergoing high-dose therapy with autologous bone marrow transplantation. Proc Soc Clin Oncol 1996; 15: 267. Rodenhuis S, Vlasveld LT, Dubrelman R et al. Feasability study of high-dose carboplatin and etoposide in the salvage treatment of testicular cancer. Ann Oncol 1992; 3: 463-7. Rodenhuis S, Van der Wall E, Schornagel JH et al. Development of a multiple high-dose chemotherapy regimen incorporating cyclophosphamide, thiotepa and carboplatin with peripheral stem-cell transplantation. Proc Soc Clin Oncol 1994; 13: 248. Droz JP, Pico JL, Kramar A. Role of autologous bone marrow transplantation in germ-cell cancer. Urol Clin North 1993; 20: 161-71. Motzer RJ, Bosl GJ. High-dose chemotherapy for resistant germ cell tumors: Recent advances and future directions. J Natl Cancer Inst 1992; 84: 1703-9. Droz JP, Kramar A, Pico JL. Prediction of long-term response after high-dose chemotherapy with autologous bone marrow transplantation in the salvage treatment of non-seminomatous germ cell tumours. Eur J Cancer 1993; 29A: 818-21. Linkesch W, Greinix HT, Hocker P et al. Long term follow up of phase I II trial ultra-high carboplatin, VP-16, cyclophosphamide with ABMT in refractory or relapsed NSGCT. Proc Soc Clin Oncol 1993; 12: 232. Beyer J, Kramar A, Mandanas R et al. High-dose chemotherapy as salvage treatment in germ cell tumors: A multivariate analysis of prognostic variables. J Clin Oncol 1996; 14: 263845. Broun ER, Nichols CR, Einhorn LH, Tricot GJK. Salvage therapy with high-dose chemotherapy and autologous bonemarrow support in the treatment of primary non-seminomatous mediastinal germ-cell tumors. Cancer 1991; 68: 1513-5. Pico JL, Ostronoff M, Droz JP et al. High-dose chemotherapy with cisplatin, etoposide and cyclophosphamide PEC protocol ; followed by autologous bone marrow support in nonseminomatous germ cell tumors. Proc Soc Clin Oncol 1989; 8: 12. Biron P, Brunat-Mentigny M, Bayle JY et al. Cisplatinum-VP 16 and ifosfamide VIC ; + autologous bone marrow transplantation in poor prognostic non-seminomatous germ cell tumors. Proc Soc Clin Oncol 1989; 8: 148. Einhorn LH, Weathers T, Loehrer P, Nichols CR. Long-term follow-up of second line chemotherapy with vinblastine, ifosfamide and cisplatin in disseminated germ cell tumors. Proc Soc Clin Oncol 1996; 15: 240. Droz JP, Kramar A, Nichols C et al. Second-line chemotherapy with ifosfamide, cisplatin and either etoposide or vinblastine in reccurent germ cell cancer Assignement of prognostic groups. Proc Soc Clin Oncol 1993; 12: 229. Debono D, Warren G, Schach B et al. Dose-intensive carboplatin and etoposide VP-16 ; with autologous bone marrow transplantation in refractory germ-cell tumors. Proc Soc Clin Oncol 1994; 13: 240 Abstr ; . 40. Bokemeyer C, Harstrick A, Ruther U et al. Sequential treatment with high-dose VIP-chemotherapy plus peripheral blood stem cell support in advanced germ cell cancer. Proc Soc Clin Oncol 1995; 14: 230. Bokemeyer C, Schmoll HJ. Treatment of advanced germ cell tumours by doses intensified chemotherapy with haematopoietic growth factors or peripheral blood stem cells PBSC ; . Eur Urol 1993; 23: 223-30. Culine S, Droz JP, Delva R et al. Rapidely recycled intensive alternating chemotherapy in heavily pretreated progressive non-seminomatous germ cell tumors. A feasibility study. Urol Oncol 1995; 1: 109-14. Motzer RJ, Bajorin DF, Schwartz LH et al. Phase II trial of paclitaxel shows antitumor activity in patients with previously treated germ cell tumors. J Clin Oncol 1994; 12: 2277-83. Bokemeyer C, Beyer J, Metzner B et al. Phase IT study of paclitaxel in patients with relapsed or cisplatin refractory testicular cancer. Ann Oncol 1996; 7: 31-4. Christou A, Roth B, Fox S et al. Phase IT trial of paclitaxel in refractory germ cell neoplasms. Proc Soc Clin Oncol 1996; 15: 249. Chou TC, Motzer RJ, Tong Y, Bosl GJ. Computerized quantitation of synergism and antagonism of taxol, topotecan and cisplatin against human teratocarcinoma cell growth: Rational approach to clinical protocol design. J Natl Cancer Inst 1994; 86: 1517-24. Motzer RJ, Bosl GJ, Tauer K, Golbey R. Phase II trial of carboplatin in patients with advanced germ cell tumors refractory to cisplatin. Cancer Treat Rep 1987; 71: 197-8. Schmoll HJ. The role of ifosfamide in testicular cancer. Contr Oncol 1987; 26: 234-55. Hartlapp JH, Weissbach L, Horstmann-Dubral B. Ifosfamide monotherapy in testicular cancer. Contr Oncol 1987; 26: 256-61. Einhorn LH, Williams SD. Chemotherapy of disseminated testicular cancer. A random prospective study. Cancer 1980; 46: 1339-44. Lecesne A, Droz JP, Azab M et al. Phase II trial with single agent epirubicin as salvage chemotherapy in refractory germ cell tumors. Proc Soc Clin Oncol 1990; 9: 145. Lecesne A, Droz JP, Kattan J et al. Phase II trial of a combination of ifosfamide, navelbine and epirubicine as salvage chemotherapy in refractory germ cell tumors. Proc Soc Clin Oncol 1991; 10: 174. Droz JP, Pico JL, Biron P et al. No evidence of a benefit of early intensified chemotherapy with autologous bone marrow and esmolol.

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