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Case Report

Splenic marginal zone B-cell lymphoma associated with ruptured breast implants: case report and review of the literature

, , &
Pages 46-49 | Received 14 Apr 2020, Accepted 13 Feb 2021, Published online: 05 Apr 2021

Abstract

We describe splenomegaly and bilateral grade 2 Baker breast capsular contracture in a woman who had undergone augmentation mammoplasty. This case represents the first documented instance of splenic marginal zone lymphoma, and is among the rare reports of B-cell lymphoma, arising in a patient with breast implants.

Introduction

The medical literature currently contains twelve cases of B-cell lymphoma occurring in patients with breast implants, including follicular lymphoma, primary cutaneous follicle center lymphoma, intravascular large-cell lymphoma, diffuse large B-cell lymphoma, marginal zone lymphoma, and plasmablastic lymphoma ([Citation1–11], summarized in ). An association between B-cell lymphomas and implants has been previously dismissed given the heterogeneity of such lymphoma cases. However, there are noteworthy commonalities amongst the cases. Many involved textured breast implants that had been compromised. The case presented here is the first case of splenic marginal zone B-cell lymphoma associated with breast implants. While it is unclear whether the ruptured implants directly contributed to the development of lymphoma, silicone granulomas from ruptured implants may have provided an immunologic stimulus. Plastic surgeons should be encouraged to report all cases of lymphoma associated with implants in order to further investigate this relationship.

Table 1. Cases of B-cell lymphomas associated with breast implants.

Case report

A 56-year-old woman presented with abdominal pain, bloating, early satiety, changes in bowel habits, and weight loss. Her past medical history included a ten-year history of progressive fatigue prompting early retirement at age 50 and a five-year history of left breast tenderness near her inframammary fold. She had undergone augmentation mammoplasty with subpectoral Dow Corning double lumen smooth implants 27 years previously and had never experienced a need for replacement.

An abdominal CT scan revealed splenomegaly, enlarged splenic hilar lymph nodes, and borderline-enlarged periaortic lymph nodes (). Subsequent peripheral blood analysis and flow cytometric immunophenotyping, revealed pancytopenia and a clonal B-cell population with nonspecific immunophenotype and villous morphology. Her subsequent bone marrow aspirate and core biopsy were most consistent with splenic marginal zone lymphoma, occupying approximately 20% of marrow cellularity. Immunostains were positive for CD20 and negative for Cyclin D1 (). Flow cytometry of the bone marrow showed a monoclonal B-cell population expressing CD20 (bright), CD45, FMC-7, CD19, CD11c (dim), CD22 (dim), and kappa immunoglobulin light chain restriction. The monoclonal B-cells were negative for CD5, CD10, and CD23.

Figure 1. The patient’s abdominal CT scan demonstrates massive splenomegaly with adjacent abdominal lymphadenopathy.

Figure 1. The patient’s abdominal CT scan demonstrates massive splenomegaly with adjacent abdominal lymphadenopathy.

Figure 2. Microscopic examination of the patient’s peripheral blood smeared reveals atypical lymphocytes with villous morphology (A, 1000x magnification). Her bone marrow contained prominent lymphoid aggregates accounting for approximately 20% of the marrow’s cellularity (B, 200x magnification) that were composed of B-cells positive for CD20 by immunohistochemistry (C, 200x magnification).

Figure 2. Microscopic examination of the patient’s peripheral blood smeared reveals atypical lymphocytes with villous morphology (A, 1000x magnification). Her bone marrow contained prominent lymphoid aggregates accounting for approximately 20% of the marrow’s cellularity (B, 200x magnification) that were composed of B-cells positive for CD20 by immunohistochemistry (C, 200x magnification).

A PET-CT scan demonstrated mildly hypermetabolic epigastric lymph nodes, hypermetabolic splenomegaly consistent with lymphoma, left breast increased metabolic activity suspicious for capsulitis, and bilateral findings suspicious for implant rupture. Subsequent breast MRI showed right implant intra-capsular contained rupture and left implant rupture with extracapsular silicone extension. There were two discrete 5-mm foci of extracapsular silicone along the inferior medial aspect of the left implant. Physical exam showed bilateral grade 2 Baker capsular contracture and no lymphadenopathy. The patient received weekly rituximab treatment for four weeks and also underwent bilateral capsulectomy and implant removal. Histologic examination of the excised capsular tissue demonstrated a marked inflammatory response and silicone granulomata, but no overt malignancy. On follow up eight years after therapy, the patient is currently alive without evidence of disease.

Discussion

Splenic marginal zone B-cell lymphoma is a rare malignancy, accounting for less than 2% of all lymphoma cases [Citation12]. It was first described in 1992 and is now considered a separate entity in the World Health Organization (WHO) classification [Citation13]. The three types of marginal zone B-cell lymphomas are splenic marginal zone lymphoma (SMZL), nodal marginal zone lymphoma (NMZL), and extranodal marginal zone lymphoma of mucosa-associated lymphoid tissue (MALT lymphoma). The diagnosis of SMZL is made based on lymphocyte morphology, immunophenotype, cytogenetic abnormalities, bone marrow histology, and spleen histology if available. When microscopic examination of the spleen is not possible, clinical splenomegaly and typical morphologic and immunophenotypic blood and bone marrow findings are sufficient to make a diagnosis.

SMZL typically affects patients in the sixth decade without gender predominance. Main features include symptomatic massive splenomegaly, lymphocytosis, and cytopenias. Lymphadenopathy and extralymphatic organ involvement are uncommon [Citation14]. Although no therapy is curative, this lymphoma type is indolent in nature. Median survival is roughly 10 years and there is greater than 60% 5-year survival [Citation15–20].

An association may exist between marginal zone lymphomas and sustained immunologic stimulus. For example, gastric MALT lymphoma often arises in the setting of Helicobacter pylori infection. SMZL is associated with viruses, such as hepatitis C virus and Kaposi’s sarcoma- associated herpes virus [Citation21–24]. One study found that autoimmune phenomena were present in 20% of SMZL patients [Citation25]. In the case presented here, the patient had nodules near her left inframammary fold for five years, which were later found to be silicone granulomas from implant rupture. While it is unclear whether the ruptured implant directly contributed to the development of lymphoma, silicone granulomas from ruptured implants may have provided such an immunologic stimulus.

Of note, silicone prostheses have been reported in association with lymphoma arising at anatomic sites other than the breasts. To date, two cases of anaplastic large cell lymphoma have been documented adjacent to gluteal implants [Citation26,Citation27]. These patients lend support to the hypothesis that silicone leakage contributed to lymphoma development. While the argument can be made for loco-regional lymphomas occurring as a result of close-proximity immunologic stimuli, the data is less convincing as to whether disrupted implants are responsible for systemic lymphomas. The medical literature currently describes two patients with compromised silicone implants who presented with follicular lymphoma and intravascular large B-cell lymphoma outside of their breast tissue [Citation3,Citation4]. However, systemic lymphomas arising in women with breast implants could be purely coincidental. Upon conducting a Surveillance, Epidemiology, and End Results (SEER) incidence database query from 1975 to 2019, we have detected no statistically significant correlation between B-cell lymphoma development and the presence of breast implants. Similar findings have been discussed previously [Citation28]. Therefore, we must be hesitant to infer causation between breast augmentation and B-cell lymphoma based on the less than 15 published cases.

Conclusions

This case is the first report of splenic marginal zone lymphoma associated with ruptured silicone implants. There are now thirteen reports of B-cell lymphomas developing in implanted patients. Several involved leaking or ruptured silicone implants. Because of the rarity of B-cell lymphomas in augmented patients, there is less likely to be an association between B-cell lymphomas and ruptured silicone implants. To further investigate this possible association, plastic surgeons should report all cases of lymphoma, both B- and T-cell, in the context of breast implants.

Disclosure statement

This case report was not sponsored by any grants or other sources of financial support.

The authors declare that there is no conflict of interest regarding the publication of this paper.

The patient described in our paper has given written consent to the inclusion of material pertaining to her, has acknowledged that she cannot be identified via the paper, and we have fully anonymized her.

All mandatory laboratory health and safety procedures have been complied with in the course of conducting any experimental work reported in our paper.

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