scholarly journals A clinical report of Burkitt’s lymphoma

2020 ◽  
Vol 27 (4) ◽  
pp. 161-168
Author(s):  
A. V. Burlutskaya ◽  
N. S. Kovalenko ◽  
A. V. Statova ◽  
Yu. V. Brisin

Aim. A clinical analysis of Burkitt’s lymphoma (BL) in a 4 years-old female child.Materials and methods. A retrospective analysis was conducted for the history, disease’s course, laboratory and instrumental diagnosis and treatment in patient B. with BL, 4 years old.Results. A 4-yo patient was diagnosed with BL spread to bone marrow, CNS, lymph nodes, both kidneys and spleen. Leukocytosis in common blood profile. Elevated lactate dehydrogenase (LDH) and C-reactive protein (CRP) in biochemical blood profile. Neck lymphadenopathy, mediastinum in computed tomography (CT). Splenomegaly. Multifocal lesion of both kidneys. Retroperitoneal lymphadenopathy. Positive clinical dynamics (normalisation of body weight) is observed with background therapy, LDH 335 U/L in biochemical blood profile, reduced multifocal kidney lesion and spleen size in CT.Conclusion. A clinical case of Burkitt’s lymphoma is reported affecting the bone marrow, CNS, lymph nodes, both kidneys and spleen. Intensive polychemotherapy allowed stabilisation of the patient and containment of oncological processes.

Blood ◽  
2008 ◽  
Vol 112 (11) ◽  
pp. 5268-5268
Author(s):  
Majdi SM Hamarshi ◽  
Maha abu Kishk ◽  
Mahmoud Mahafzah ◽  
Jami Walloch

Abstract Introduction: Chromosomal translocations are common in non-Hodgkin’s lymphomas (NHL), most frequently involving the genes bcl-2 in the t(14;18) of follicular lymphoma (FL), c-myc in the t(8;14) of Burkitt’s lymphoma (BL) and bcl-6 in the t(3;14) of follicular or diffuse large B-cell (DLBC) lymphoma. We report the clinical features, pathology and genetic findings in an exceedingly rare case of Burkitt’s lymphoma that showed concurrent involvement of these three chromosomal loci. Case Report: This is a 65 year old Caucasian female who presented with a rapidly growing right supraclavicular lymph node over a few weeks. FNA biopsy showed typical morphology of Burkitt’s lymphoma. Similar morphologic features were found on the bone marrow biopsy. There was widespread disease with no CNS involvement. Flow cytometry from peripheral blood and immunohistochemistry on the cellblock showed B-cell phenotype positive for CD 10, CD19, CD20 (negative CD20 by immunohistochemistry), HLA-DR, cytoplasmic CD79a, and negative for CD34 and TdT. The interesting finding was the lack expression of surface or cytoplasmic immunoglobulin and expression of weak Bcl-6. Almost 90–95% expressed Ki67. The cytogenetic analysis reportedly demonstrated a complex karyotype t(3;8;14), and t(14;18) involving c-myc (8q24), bcl-2 (18q21), and bcl-6 (3q27). After 7 cycles of hyper CVAD-R she had bone marrow biopsy which showed residual disease. She also had a biopsy confirmed relapse as left arm nodule and left leg nodular infiltrate at 8 and 12 months form the diagnosis, respectively. Discussion: This is a complex case of high grade B-cell lymphoma with morphology suggestive of Burkitt’s lymphoma. However the classification was challenging by the lack of surface immunoglobulin expression that might be expected in mature B-cell neoplasm “DLBCL, FL”, and the lack of TdT and CD34 that might be expected in precursor B-cell neoplasm “BL”. The diagnosis was highly dependent on the cytogenetic findings, which was significant for the presence of t(8;14) albeit in a three way translocation t(3;8;14), and t(14;18) involving c-myc (8q24), bcl-2 (18q21), and bcl-6 (3q27). The lymphoma was therefore described as “Burkitt’s transformation”. This is a rare translocation pattern, but has been described in follicular lymphoma, grade 3; diffuse large cell lymphoma; and Burkitt’s lymphoma. Conclusion: BL might lack surface immunoglobulin expression making the diagnosis of high grade B-cell lymphoma challenging if based on the morphology and immunophenotyping alone. The cytogentetic findings better delineate sub-types of lymphoma. Molecular evidence of multiple oncogene deregulations, especially when involving the c-myc gene, appears to be associated with a dire clinical outcome.


Blood ◽  
2008 ◽  
Vol 112 (11) ◽  
pp. 5284-5284
Author(s):  
Jed Katzel ◽  
Sanford Kempin ◽  
David Vesole ◽  
Portia Lagmay-Fuentes ◽  
William Cook ◽  
...  

Abstract Therapy related secondary malignancies after NHL are well characterized in the HIV negative population. The increased risk of secondary leukemia is most commonly associated with alkylating agents, topoisomerase II inhibitors and radiation therapy. We describe 2 patients with HIV-associated Burkitt’s lymphoma who subsequently developed acute leukemia. Case Report 1: An HIV positive 60 yr old male was diagnosed with Burkitt’s lymphoma five years after beginning antiretroviral therapy. Lymph node flow cytometry demonstrated: CD10+, CD19+, CD20+, KAPPA+. He achieved a complete remission after completing the Vanderbilt regimen (cyclophosphamide, methotrexate, bleomycin, vincristine, and doxorubicin) (McMaster M, et al. J Clin Oncol. 1991:9:941–946). Eight years later, he presented with acute myelomonocytic leukemia (M4) after a myelodysplastic prodrome. Flow cytometry demonstrated CD11c+, CD13+, CD33+, CD34+, CD 64+ and cytogenetics showed 5q(−) and 20q(−). He received induction chemotherapy with arsenic trioxide and low dose cytarabine. He did not achieve a remission, and died 2 months later. Case Report 2: A 45 yr old male presented with severe abdominal pain, and fever. During laparotomy, he was found to have a cecal mass consistent with Burkitt’s lymphoma. A bone marrow biopsy also showed Burkitt’s lymphoma: CD10+, CD19+, CD20+, CD22+, CD 38+, CD45+, CD71+. He was subsequently diagnosed with HIV with a CD4 count of 60/uL. He was treated with CODOX-M (cyclophosphamide, doxorubicin, vincristine, methotrexate, IT cytarabine, IT methotrexate) and IVAC (Ifosfamide, etoposide, cytarabine, IT methotrexate) (Magrath I, et al. J Clin Oncol1996;14:925–934) achieving a CR. He remained on antiretroviral therapy throughout his course. Two years later, he presented with thrombocytopenia. A bone marrow aspirate was consistent with precursor B-cell ALL CD19+, CD34+, CD79a+ and TdT+ distinct from the previous Burkitt’s lymphoma. He was treated with the L20 (Clarkson B, et al. Haematol Blood Transfus1990;33:397–408) protocol achieving a durable CR. He continued his retroviral therapy during his treatment. Conclusions: HIV positive patients have an increased propensity to develop malignancy independent of prior chemotherapy or radiotherapy exposure. In the era of HAART, the survival of HIV positive patients has markedly improved. Although the role of chemotherapy and radiation therapy are well documented as causative agents of neoplasia, the risk of HAART therapy with toxicity of nuclear, cytoplasmic and cell membrane effects potentially inducing malignancies is less well defined. Many of these agents are considered oncogenic in animal models but have not been proven to cause tumors in humans. However, it is conceivable, given the cellular toxicities of antineoplastic and antiretroviral therapy, that in combination they could cause myelodysplasia or further lymphodysplasia. It is too early to know if HIV patients are at a greater risk for development of secondary malignancies as a long-term complication of chemotherapy. However, because recent studies have demonstrated that HIV+ patients on highly active antiretroviral therapy (HAART) have comparable responses to chemotherapy compared to HIV negative patients, we recommend that patients continue HAART while receiving treatment for malignancy. Close surveillance for the appearance of secondary leukemias is warranted.


Blood ◽  
2012 ◽  
Vol 120 (21) ◽  
pp. 4054-4054 ◽  
Author(s):  
Marije B. Overdijk ◽  
Sandra Verploegen ◽  
Bögels Marijn ◽  
Marjolein van Egmond ◽  
Richard W.J. Groen ◽  
...  

Abstract Abstract 4054 Daratumumab (DARA) is a human IgG1 CD38 antibody with broad-spectrum killing activity. DARA induces killing of CD38-expressing tumor cells, including fresh cells from multiple myeloma (MM) patient samples, via diverse mechanisms. These prominently include the Fc-dependent effector mechanisms complement-dependent cytotoxicity (CDC) and antibody-dependent cell-mediated cytotoxicity (ADCC) (de Weers et al. J. Immunol. 2011). In this study we show that DARA is also able to induce tumor cell killing via antibody-dependent cellular phagocytosis (ADCP) as an additional Fc-dependent effector mechanism. In a first set of experiments, we studied ADCP with human macrophages as effector cells. Calcein-AM-labeled Daudi tumor cells, a Burkitt's lymphoma cell line, were mixed with human macrophages in the absence or presence of DARA. Specific DARA-induced phagocytosis was analyzed in flow cytometry by measuring the percentage of calcein-AM+/CD11b+ double-positive (DP) macrophages. Both classical GM-CSF activated and alternative M-CSF activated macrophages mediated DARA-specific ADCP of the Burkitt's lymphoma cells. To further explore the in vivo contribution of ADCP in the mechanism of action (MoA) of DARA, we studied DARA mediated phagocytosis with murine macrophages. In vitro ADCP with M-CSF-stimulated bone marrow-derived murine macrophages showed a dose-dependent DARA-specific effect on the Burkitt's lymphoma cell lines Ramos and Daudi, resulting in up to 24% and 43% DP macrophages and a 25% and 50% tumor cell reduction, respectively. Furthermore, dose-dependent DARA-specific phagocytosis was observed with patient-derived MM cell lines L363 and UM9, which were transduced with CD38 to obtain levels CD38 expression as they are generally observed in primary MM patient samples. With life-cell imaging we found that ADCP of Daudi and Ramos cells occurred very rapid and efficiently. Interestingly, our recordings document that single macrophages could engage multiple target cells and that they were able to engulf up to six tumor cells sequentially in a 30 min period. This suggests that ADCP might be a very potent MoA of DARA in vivo, which we are currently studying in a mouse xenograft model. In conclusion, in addition to CDC and ADCC, we now show that DARA can also induce killing of CD38 expressing tumor cells via phagocytosis. This very fast and potent MoA might contribute to the treatment efficacy of DARA in hematological tumors, especially at sites where high numbers of macrophages reside, such as the bone marrow. Disclosures: Overdijk: Genmab BV: Employment. Verploegen:Genmab BV: Employment. Groen:Genmab BV: Research Funding. Martens:Genmab BV: Research Funding. Lammerts van Bueren:Genmab BV: Employment. Bleeker:Genmab BV: Employment. Parren:Genmab BV: Employment.


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