Mycosis fungoides with large cell transformation (CD30+) and B-cell chronic lymphocytic leukemia.

Mikela Petković, Ivana Ilić, Ružica Jurakić Tončić, Ivo Radman-Livaja, Romana Čeović
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Abstract

Mycosis fugnoides (MF) is an indolent cutaneous T-cell lymphoma (CTLC) and is the most common of all cutaneous lymphomas. An increased risk for developing a second primary malignancy in patients with CTCL has been described in several studies, with a range from 1.04 to 2.4 (1-4). Caucasian males are at higher risk for MF development. MF is often diagnosed at ages between 55 and 67 years, and second malignancy usually occurs 5 or 6 years after the diagnosis of MF was established (5). The most common second primary malignancies include non-Hodgkin lymphoma (NHL), Hodgkin lymphoma (HL), lung carcinoma, bladder carcinoma, and melanoma. Even though a higher incidence rate of all NHL was described in patients with MF (15/1000) in comparison with the general population (0.32/1000), there are still only a few cases of B-cell NHL following MF described in the literature (6,7). We describe a rare case of a patient with MF and simultaneous large cell transformation (LCT) and a small B-cell lymphocytic lymphoma/chronic lymphocytic leukemia (B-CLL). In 2017, an 82-year-old man previously treated for MF presented with two fast growing tumorous lesions with ulceration on the right tight (Figure 1). A biopsy was performed, and a diagnosis of MF with LCT was established (Figure 2). During hospitalization, mild leukocytosis (12.2 x109 L-1), lymphocytosis (64%, total count of 7.81 x109 L-1), and anemia were found. Bone marrow biopsy was not performed due to low pain threshold. Bone marrow aspirate showed 70% of atypical lymphocytes and few "smudged" cells. Immunophenotyping by flow cytometry detected 49% monoclonal kappa+ B-cells with phenotypic features typical for B-CLL (CD5+, CD23+, kappa +). Of overall bone marrow cells, the ratio of monoclonal kappa + B-cells with the B-CLL phenotype was 21%. Immunophenotyping of peripheral blood showed up to 50% monoclonal kappa+ B-cells with phenotypic features typical for B-CLL (CD5+, CD23+, kappa +). Of overall peripheral blood cells, the ratio of monoclonal kappa+ B-cells with the B-CLL phenotype was 28%. Multi-sliced computed tomography was within normal ranges. A flow cytometry showed lymphocytes with phenotypic findings for CD20+ B-CLL. A diagnosis of MF with LCT (CD30+) clinical grade IIB (T3, N0, M0) and B-CLL was established. The patient was treated with fractionated superficial irradiation that resulted in applanation and regression of the tumorous lesions. No hematologic treatment was indicated other than regular follow-up. On dermatologic follow up for 2 years, the patient was stable, with no active skin lesions and no progression of MF. The patient was subsequently lost to follow-up. This is a rare case of MF with LCT and B-CLL occurring simultaneously. Large cell transformation in patients with MF can occur in 20-55% of advanced MF, as in our case, and this something physicians must be aware of, so repeated biopsies are advised (8). We also should keep in mind that patients with MF are at higher risk of developing a second malignancy. Of those second malignancies, a coexistence of lymphoproliferative disorders in two lineages, T-cell and B-cell, such as CTCL and B-CLL, is very uncommon, and only a few cases have been published (6,7,10). In most of these cases, CTCL preceded B-CLL, and with the only established explanation being increased risk of second malignancy in patients with CTCL (3,5,10). Other explanatory hypotheses include neoplastic stem cells, a genetic predisposition to malignancy, the use of immunosuppressive agents for the treatment for a first neoplasm, viral agents, and modulation of the B-cell system by monoclonal T-cell proliferation (1,5,6,9,10). Regular follow-up is mandatory for all patients with CTCL as well as MF, in order to identify the disease progression but for the timely detection of second malignancies.

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真菌病伴大细胞转化(CD30+)和 B 细胞慢性淋巴细胞白血病。
布氏杆菌病(MF)是一种不活跃的皮肤 T 细胞淋巴瘤(CTLC),是所有皮肤淋巴瘤中最常见的一种。多项研究表明,CTCL 患者罹患第二种原发性恶性肿瘤的风险增加,范围从 1.04 到 2.4 (1-4)。白种男性罹患 MF 的风险更高。骨髓纤维瘤的确诊年龄通常在 55 至 67 岁之间,第二次恶性肿瘤通常发生在骨髓纤维瘤确诊后的 5 或 6 年(5)。最常见的第二原发恶性肿瘤包括非霍奇金淋巴瘤(NHL)、霍奇金淋巴瘤(HL)、肺癌、膀胱癌和黑色素瘤。尽管与普通人群(0.32/1000)相比,MF 患者所有 NHL 的发病率更高(15/1000),但文献中关于 MF 后 B 细胞 NHL 病例的描述仍然寥寥无几(6,7)。我们描述了一例罕见的MF患者,他同时患有大细胞转化(LCT)和小B细胞淋巴细胞淋巴瘤/慢性淋巴细胞白血病(B-CLL)。2017年,一名曾接受过MF治疗的82岁男性患者出现了两个快速生长的肿瘤病灶,右侧紧贴处伴有溃疡(图1)。经活检,确诊为 MF 伴 LCT(图 2)。住院期间发现轻度白细胞增多(12.2 x109 L-1)、淋巴细胞增多(64%,总计数为 7.81 x109 L-1)和贫血。由于疼痛阈值较低,没有进行骨髓活检。骨髓穿刺显示 70% 的非典型淋巴细胞和少量 "污点 "细胞。通过流式细胞术进行免疫分型,发现49%的单克隆kappa+ B细胞具有B-CLL的典型表型特征(CD5+、CD23+、kappa+)。在所有骨髓细胞中,具有 B-CLL 表型的单克隆 kappa + B 细胞比例为 21%。外周血免疫分型显示,具有 B-CLL 典型表型特征(CD5+、CD23+、kappa +)的单克隆 kappa + B 细胞高达 50%。在所有外周血细胞中,具有 B-CLL 表型的单克隆 kappa+ B 细胞比例为 28%。多切片计算机断层扫描结果在正常范围内。流式细胞术显示淋巴细胞表型为 CD20+ B-CLL。最终确诊为中频伴LCT(CD30+)临床分级IIB(T3,N0,M0)和B-CLL。患者接受了分次表皮照射治疗,结果肿瘤病灶缩小并消退。除定期随访外,没有进行血液学治疗。皮肤科随访 2 年,患者病情稳定,没有活动性皮损,MF 也没有进展。随后,患者失去了随访机会。这是一例罕见的同时发生大细胞癌和 B-CLL 的 MF 病例。20%-55% 的晚期 MF 患者会发生大细胞变异,就像我们的病例一样,医生必须注意这一点,因此建议反复进行活检(8)。我们还应该记住,MF 患者罹患第二种恶性肿瘤的风险较高。在这些第二种恶性肿瘤中,T 细胞和 B 细胞两系淋巴细胞增生性疾病(如 CTCL 和 B-CLL)并存的情况非常少见,目前仅有少数病例发表(6,7,10)。在大多数病例中,CTCL 发生在 B-CLL 之前,唯一确定的解释是 CTCL 患者发生第二次恶性肿瘤的风险增加(3,5,10)。其他解释性假说包括肿瘤干细胞、恶性遗传倾向、使用免疫抑制剂治疗首次肿瘤、病毒制剂以及单克隆 T 细胞增殖对 B 细胞系统的调节(1,5,6,9,10)。对所有 CTCL 和 MF 患者都必须进行定期随访,以确定疾病的进展情况,并及时发现二次恶性肿瘤。
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