INTRODUCTION
The placement of breast prostheses promotes physiological scar reactions around the
implant, forming a fibrous capsule that has been related to the development of several
breast pathologies¹. Among them stand out seromas, capsular contracture and more recently,
giant anaplastic lymphoma associated with a breast implant (BIA-ALCL)2,3.
BIA-ALCL, a rare malignancy described for the first time more than 20 years ago³,
with pathophysiology known to be related to the periprosthetic capsule, recently generated
greater concern after an open announcement from the FDA to the general population4.
The slow evolution and nonspecific clinical findings of the disease, in addition to
the simultaneous increase in the worldwide incidence of BIA-ALCL and the procedure
for the placement of breast prostheses itself, makes it essential to discuss and raise
awareness in medical practice for early, careful, and individualized recognition of
the differential diagnoses of breast pathologies after augmentation mammoplasty with
prosthesis.
This study aims to review the diagnosis differentiating from breast discomfort after
augmentation mammoplasty, calling attention to preventing biofilm formation and the
importance of suspecting BIA-ALCL.
CASE REPORT
The case report follows the model recommended by SCARE5, being approved by the ethics and research committee of the Franciscan University
under opinion number 4,023,210.
A 36-year-old female, white patient, nutritionist, sought care in a private clinic,
referring discomfort in the left breast for approximately one year.
Previously healthy patient, BMI of 30kg/m2 with no history of smoking, no personal and family history of neoplasms. Previous
history of mastopexy with a textured implant in 2015, having suture dehiscence in
the left breast, being submitted to resuture two months later, with a satisfactory
resolution. However, in 2016, she presented seroma (125ml) in her left breast. Cultural
tests were negative, submitted to implant replacement, and macro textured, round high-profile
implants of 310g were used in this surgery. In 2018, the patient presented discomfort
in the left breast, but with normal tests (resonance and ultrasound). In 2019, with
the persistence of symptoms, she again underwent magnetic resonance imaging, which
showed a small collection of fluid in the region after the left breast implant (6ml),
bi-RADS II classification (Figure 1), when she sought care.
Figure 1 - 2016 RM with 125ml liquid collection in the left breast.
Figure 1 - 2016 RM with 125ml liquid collection in the left breast.
Considering the small volume and the location of difficult access for puncture or
material collection, the surgical procedure was decided. In September 2019, through
an incision in an enlarged breast groove, a complete block capsulectomy was performed
in the left breast and a total capsulectomy on the right with implant replacement.
In this procedure, the measures of capsular contracture reduction and biofilm formation
were adopted. The pocket was washed with antibiotic solution, a change of gloves,
and minimal implant management. This procedure was used round prostheses, microtextured,
high profile and volume of 300cc. The left breast capsule was thickened, with the
presence of septation in the posterior region with translucent fluid (Figure 2). The right breast presented a double capsule, with slippage between the leaflets
but without fluid. All material was sent for histopathological analysis and research
of CD30 and ALK, considering the possibility of BIA-ALCL (Figures 3 and 4). After the procedure, there were no complications, and the patient remained satisfied
and asymptomatic in a follow-up one year after surgery.
Figure 2 - MRI 2019 with small septation in the posterior region of the left breast.
Figure 2 - MRI 2019 with small septation in the posterior region of the left breast.
Figure 3 - Septation in the posterior region of the left breast capsule after total block capsulectomy.
Figure 3 - Septation in the posterior region of the left breast capsule after total block capsulectomy.
Figure 4 - Histopathological examination of the collected material in the left breast. A. Capsular
contracture, in fibrous tissue very dense and collagenized, markedly hypocellular;
B. Narrow perivascular cuffs of small lymphocytes. No aggregate of cells evoking anaplastic
lymphoma was identified,and cd30 research was not indicated.
Figure 4 - Histopathological examination of the collected material in the left breast. A. Capsular
contracture, in fibrous tissue very dense and collagenized, markedly hypocellular;
B. Narrow perivascular cuffs of small lymphocytes. No aggregate of cells evoking anaplastic
lymphoma was identified,and cd30 research was not indicated.
DISCUSSION
The case highlights the importance of differentiating the physiological reaction of
the organism to breast implantation from pathologies such as capsular contracture,
seroma formation and BIA-ALCL. Although essentially, the scar reaction begins with
the recruitment of inflammatory cells and later with fibroblasts and myofibroblasts,
forming the periprosthetic capsule, some conditions may cause an imbalance in this
process2,6.
After the prosthesis placement in this patient in 2015, there was dehiscence in the
left breast surgical wound that may have favored the formation of a biofilm around
the left implant 2,6, which could explain the formation of unilateral seroma, even years after placement6,7. Bengtson et al. (2011) 8 associate the formation of late seroma with a double capsule of circumferential fibrous
adhesion, with an internal layer adhered to the prosthesis and the external to the
breast tissue, but this did not happen in the right breast. Hall-Findlay (2011)9highlights the possible mechanical cause of late seroma, associated with separation
of the capsule into two layers with rough surfaces (double capsule) after microtraumas,
creating seroma due to shear forces6,9.
Due to seroma in 2016, prostheses and partial capsulectomy were changed, and only
microbiological tests were performed, which came negative. However, the patient presented
breast discomfort 2 years later, probably due to a capsular contracture, even if not
evidenced in the tests in 2018.
Fibrotic tissue contraction around the implant, usually more frequent in the first
12 months after surgery, can cause changes in palpation, pain or visible deformity,
which does not happen in normal situations¹. Capsular contracture is considered the
inherent complication of the procedure with a greater need for reintervention², whose
incidence and severity are correlated with the alignment of collagen fibers7.
In 2019, after repeating US and MRI, a small collection behind the left breast implant
with about 6 ml was identified. In that same year, the breast prostheses of a given
brand, associated with BIA-ALCL, were recalled, which was the case for the prostheses
of this patient. In addition, reports in the literature have raised discussions about
complications associated with textured breast implants, such as late seroma, double
capsule and BIA-ALCL3,4,6.
Several studies consider that bacterial contamination, which can still occur during
the prosthesis placement procedure, would be responsible for biofilm formation and,
later, inflammatory response and activation of the immune system2. This response, associated with genetic predisposition, could over time be responsible
for the development of BIA-ALCL due to chronic stimulation of bacterial antigen3,9-13.
According to the BIA-ALCL diagnostic and treatment guidelines of the National Comprehensive
Cancer Network in 201914, symptomatic periprosthetic effusions, more than one year after implantation, should
be investigated by ultrasound or magnetic resonance imaging and tested for BIA-ALCL.
If the finding is more than 50ml, an investigation is indicated through fine needle
puncture and cytology, flow cytometry for characterization of “T” lymphocytes is requested,
with immunohistochemistry research for CD30, ALK among other markers, if there is
palpable mass, incisional biopsy or core biopsy can be performed and, in inconclusive cases, continue the investigation with
more images.
According to Leberfinger et al. (2017) 15, the number of women with implants needed to cause 1 case of BIA-ALCL before 75 y.o.
was 6,920. However, despite the low absolute risk for developing the disease, there
has been an increase in incidence in recent years. BIA-ALCL is generally indolent
and slow-growing, with an excellent prognosis, especially when treated with surgery,
which should be to remove the implant with the fibrous capsule and any associated
mass. Complete surgical excision prolongs overall survival and event-free survival
compared to all other therapeutic interventions14.
Considering the nonspecific clinical presentation and the non-conclusive tests added
to the patient’s fear of a pathology related to the brand of the prosthesis she had,
an explant with complete block capsulectomy in the left breast and capsulectomy on
the right, with bilateral replacement of the prostheses, was indicated. The capsules
were completely removed in this procedure, and measures were performed to prevent
biofilm formation and capsular contracture. The patient became asymptomatic, and the
final diagnosis was capsular contracture, with posterior septation due to the residual
capsule.
CONCLUSION
This study highlights the importance of long-term follow-up of patients with breast
prostheses, considering the increased incidence of reports of late seromas, double
capsule, subclinical infections with biofilm formation and its pathophysiological
mechanisms interconnected with the formation of BIA-ALCL, a pathology of excellent
prognosis if treated at an early stage.
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1. Franciscana University, Faculty of Medicine, Santa Maria, RS, Brazil.
Corresponding author: Giancarlo Cervo Rechia Rua Pinheiro Machado, 2494, Sala 402, Bairro Centro, Santa Maria, RS, Brazil. Zip
Code 97050-600 E-mail: giancarlorechia@hotmail.com
Article received: May 22, 2020.
Article accepted: April 23, 2021.
Conflicts of interest: none.