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Sample records for aclarubicin

  1. Radiotherapy combined with aclarubicin and neocarzinostatin for cancer of the gallbladder

    International Nuclear Information System (INIS)

    Okuyama, Shin-ichi; Mishina, Hitoshi; Funaki, Ken-ichi; Mori, Toshihiko

    1991-01-01

    Cancer of the gallbladder is radioresistant. When it was found inoperable, she was subjected to radiotherapy combined with aclarubicin and neocarzinostatin. Therapeutic effectiveness was confirmed at autopsy as she later succumbed to uterine cervical cancer. Thus, the present radiochemotherapeutic regimen would probably provide a means of overcoming those radioresistant inoperable malignancies. Intravenous administrations of appropriate antibiotics such as azthreonam and reniran may probably be helpful in the prevention and treatment of septic peritonitis possible during the course of reinforced radiotherapy of the abdomen. (author)

  2. Acute myelogenous leukemia following chemotherapy and radiation for rectal cancer

    Energy Technology Data Exchange (ETDEWEB)

    Aso, Teijiro; Hirota, Yuichi; Kondou, Seiji; Matsumoto, Isao; Matsuzaka, Toshimitsu; Iwashita, Akinori

    1989-03-01

    In August 1982, a 44-year-old man was diagnosed as having rectal cancer, histologically diagnosed as well differentiated adenocarcinoma, and abdominoperineal resection and colostomy were performed. Postoperatively, he received chemotherapy with mitomycin C up to a total dose of 100 mg. In September 1986, lung metastasis occurred and he was treated with a combination chemotherapy consisting of cisplatin, pirarubicin and 5-fluorouracil. In the following year, radiation treatment (total: 6900 rad) was given for a recurrent pelvic lesion. Peripheral blood on April 30, 1988, showed anemia, thrombocytopenia and appearance of myeloblasts, and a diagnosis of acute myelogenous leukemia (FAB: M1) was made. Combination chemotherapy (including aclarubicin, vincristine, behenoyl ara-C, daunorubicin, 6-mercaptopurine, cytarabine, etoposide and prednisolone) failed to induce remission and the patient died in June 1988. This case was thought to be one of secondary leukemia occurring after chemotherapy and radiation treatment for rectal cancer. This case clearly indicates the need for a careful follow-up of long-term survivors who have received cancer therapy. (author).

  3. [Different effects of anticancer drugs on two human thyroid cell lines with different stages of differentiation].

    Science.gov (United States)

    Yamanaka, T; Hishinuma, A

    1995-01-20

    We established two human thyroid tumor cell lines. One cell line (hPTC) was established from the tissue of a papillary thyroid carcinoma surgically excised from a 27-year-old female patient. The other cell line (hAG) was established from the tissue of an adenomatous goiter excised from a 59-year old female patient. Synthesis of cAMP by hPTC and hAG increased when they were stimulated by TSH. hPTC and hAG continued to divide as a monolayer in a tissue culture for three years and two years, respectively. We assessed the efficacy of anticancer drugs (doxorubicin:ADR, cisplatin:CDDP, nimustine:ACNU, bleomycin:BLM, cyclophosphamide:CPA, aclarubicin:ACR) with resard to hPTC. The hPTC cells were cultured in 24-well plates in the presence of the anticancer drugs for 48 hours, and the cellular DNA of the live cells was measured with diaminobenzoic acid. ADR had the lowest ED50 (0.029 mu g/ml) and the clinical blood concentration was 13.8 times that of the ED50. The clinical blood concentration divided by ED50 for the other anticancer drugs are, in order of higher values, 2.3 for CPA, 1.7 for BLM, 1.2 for CDDP, 0.5 for ACR, and less than 0.1 for ACNU. ADR showed time-independent effects since a 2-hour exposure of ADR to the hPTC cells resulted in the significant reduction of the cellular DNA content of the live cells even after 48 hours. The effects of the other anticancer drugs were time-dependent. We then studied the difference of the effects of ADR on hPTC and hAG. ED50 for hPTC was significantly low (0.035 mu g/ml) compared to that for hAG (0.460 mu g/ml). Since free radical formation is one of the major anticancer mechanisms of ADR the effects of free radicals on ED50's for hPTC and hAG were measured by adding glutathione (GSH), N-acetylcystein (NAC), buthionine sulfoximine (BSO), and alpha-tocopherol (alpha-toco) into the culture media. GSH catches up with free radicals in the extracellular fluid. NAC promotes production of GSH in the cytoplasm, but BSO interferes with