Linlin Xiao1, Xudong Hu, Suzhen Wang, Gao Yong-Sheng, Qingxi Yu, Song Gao, Hui Zhang, Yuchun Wei, Qian Zhao, Shuang-Hu Yuan. 1. From the School of Medicine and Life Sciences (L-LX, HZ, Y-CW, QZ), University of Jinan-Shandong Academy of Medical Sciences; (L-LX, X-DH, S-ZW, Y-SG, QXY, SG, HZ, Y-CW, QZ, S-HY), Shandong cancer hospital affiliated to Shandong University, Jinan, Shandong, China; and (S-HY), Shandong Academy of Medical Sciences, Jinan, Shandong, China.
Abstract
INTRODUCTION: Breast cancer is a commonly diagnosed cancer, in which most patients' metastases (about 75%) occurred in 5 years after the initial diagnosis, especially in 3 years. Recrudescence exceeding 20 years is rarely reported in the past several decades.Case information: A 68-year-old female patient presented with breast cancer in which 3 focal increased 18F-fluorodeoxyglucose uptake in the right supraclavicular lymph node, the mediastinum and sternum were found on positron emission tomography and computed tomography. Then we learned that the patient had suffered from breast cancer and been given a right-sided mastectomy 24 years ago. Histopathology from the mediastinum revealed metastatic, moderately differentiated breast adenomatous cell carcinoma. CONCLUSION: We report this late recurrence of breast cancer 24 years following mastectomy, suggesting that possible recurrence of this disease with a 24-year latency period should be taken into consideration.
INTRODUCTION:Breast cancer is a commonly diagnosed cancer, in which most patients' metastases (about 75%) occurred in 5 years after the initial diagnosis, especially in 3 years. Recrudescence exceeding 20 years is rarely reported in the past several decades.Case information: A 68-year-old female patient presented with breast cancer in which 3 focal increased 18F-fluorodeoxyglucose uptake in the right supraclavicular lymph node, the mediastinum and sternum were found on positron emission tomography and computed tomography. Then we learned that the patient had suffered from breast cancer and been given a right-sided mastectomy 24 years ago. Histopathology from the mediastinum revealed metastatic, moderately differentiated breast adenomatous cell carcinoma. CONCLUSION: We report this late recurrence of breast cancer 24 years following mastectomy, suggesting that possible recurrence of this disease with a 24-year latency period should be taken into consideration.
Breast cancer is a commonly diagnosed cancer and a serious threat to women's health and even life. Surgery, chemotherapy, radiotherapy, and endocrine therapy are commonly used therapeutic tools for breast cancer. Local recurrence is common in patients with breast cancer after relevant treatments. Among the 5 subtypes of breast cancer, luminal A is associated with a low risk of recurrence, then the luminal B and luminal HER2, while the subtype of no-luminal HER2 and triple negative have a high risk.[1,2] Most patients’ recurrence (about 75%) occurred in 5 years after the initial diagnosis, especially in 3 years.[3,4] Although there are a few recurrences after more than 10 years, the recrudescence exceeding 20 years is rare. Only sporadic cases have been published in the past several decades.[5-7] Here, we report a case of a patient with recurrence after 24 years, which was confirmed by the tissue biopsy and immunohistochemistry.
CASE REPORT
A 68-year-old female patient presented herself to our outpatient oncological clinic. She presented with complaints of facial edema, palpebral edema, pectoral tightness that was aggravated by activity but reduced after rest. Breast ultrasonic examination performed: the right breast was after-surgery absence. According to requirements by her family, the patient was underwent a follow-up 18F-FDG -PET/CT scan. Three lesions of increased FDG accumulation were observed in the right supraclavicular lymph node, the mediastinum and sternum, revealing 3 focal lesions with increased FDG uptake in these regions, referred to as “mass A,” “mass B,” and “mass C” (Figure 1A: arrows, SUVmax = 13.8; Figure 1B: arrows, SUVmax = 15.98; Figure 1C: arrows, SUVmax = 6.1).
FIGURE 1
Coronal series showed 3 dense consolidation with areas of increased uptake, and these lesions were pointed by yellow arrows. A, It was mass A in the right supraclavicular lymph node. B, It was mass B in mediastinum. C, It was mass C in sternum.
Coronal series showed 3 dense consolidation with areas of increased uptake, and these lesions were pointed by yellow arrows. A, It was mass A in the right supraclavicular lymph node. B, It was mass B in mediastinum. C, It was mass C in sternum.When asking about the patient's medical history, we learned that the patient had breast cancer 24 years ago. In 1991, the patient was admitted to the surgical department and was given a right-sided mastectomy with removal of the enlarged lymph nodes in the inferior level of the right axilla and chest-wall. Postoperative histopathological examination confirmed breast infiltrating ductal carcinoma. After operation the patient carried out 4 cycles of chemotherapy. Then she took Tamoxifen for 5 years and checked regularly every year.A computed tomography (CT)-guided gun biopsy was taken from the lymph node (mass B) in mediastinum. Histopathology from mass B revealed nested invasive breast adenomatous cell carcinoma (Figure 2). Immunohistochemistry showed that malignant cells were strong positive for estrogen receptors (ER) and progesterone receptors (PR) (Figure 3). Staining for human epidermal growth factor receptor-2 (HER2) was moderate positive. In addition, the cells showed positive staining for CK7; although the intensity was weaker than that of ER and PR, their presence was distinct in breast cancer. Based on these pathologic findings, mass B was diagnosed as a local recurrence of breast cancer. For further studying the relationship between the recurrence and the mechanism of tumor dormancy, we carried out deeper molecular analyses on newly occurred metastases (Figure 4). Immunohistochemistry showed that staining for stanniocalcin-1(STC-1), stanniocalcin-2 (STC-2), and differentiation 133(CD133) was positive, the aldehyde dehydrogenase 1 (ALDHA1) was negative.
FIGURE 2
Pathological result of mediastinum was observed under a light microscope (Olympus BX51, Tokyo, Japan; hematoxylin-eosin staining, original magnification 200) and representative photos were taken. CT-guided biopsy of mass B in the mediastinum revealed nested invasive breast adenomatous cell carcinoma. CT = computed tomography.
FIGURE 3
In the immunohistochemical detection of mass B in the mediastinum, PR and ER appeared strong positive in nucleus (A, B) with magnification of 200. Her2 appeared positive in cytomembrane (C) with magnification of 200. CK7 appeared positive in cytoplasm (D) with magnification of 200. CK = cytokeratin, ER = estrogen receptors, HER2 = human epidermalgrowth factor receptor-2, PR = progesterone receptors.
FIGURE 4
In the further immunohistochemical detection of mass B in the mediastinum, CD133 appeared positive in cytoplasm (A) with magnification of 200. STC-1 and STC-2 appeared positive in cytoplasm (B, C) with magnification of 200. ALDHA1 appeared negative in cytoplasm (D) with magnification of 200. ALDHA1 = aldehyde dehydrogenase 1, CD133 = differentiation 133, STC-1 = stanniocalcin-1, STC-2 = stanniocalcin-2.
Pathological result of mediastinum was observed under a light microscope (Olympus BX51, Tokyo, Japan; hematoxylin-eosin staining, original magnification 200) and representative photos were taken. CT-guided biopsy of mass B in the mediastinum revealed nested invasive breast adenomatous cell carcinoma. CT = computed tomography.In the immunohistochemical detection of mass B in the mediastinum, PR and ER appeared strong positive in nucleus (A, B) with magnification of 200. Her2 appeared positive in cytomembrane (C) with magnification of 200. CK7 appeared positive in cytoplasm (D) with magnification of 200. CK = cytokeratin, ER = estrogen receptors, HER2 = human epidermalgrowth factor receptor-2, PR = progesterone receptors.In the further immunohistochemical detection of mass B in the mediastinum, CD133 appeared positive in cytoplasm (A) with magnification of 200. STC-1 and STC-2 appeared positive in cytoplasm (B, C) with magnification of 200. ALDHA1 appeared negative in cytoplasm (D) with magnification of 200. ALDHA1 = aldehyde dehydrogenase 1, CD133 = differentiation 133, STC-1 = stanniocalcin-1, STC-2 = stanniocalcin-2.The patient has consented for the publication of the present case report.
DISCUSSION
Here, we report a case of breast cancer that recurred after a 24-year latency period. This late recurrence of breast cancer has been described historically as extremely rare. Only sporadic cases have been published in the past several decades.[5-7] These patients had different symptoms with different metastatic sites, such as lymphedema in arm, slight dyspnea, idiopathic thrombocytopenic purpura accompanied. In this case, our patient had some symptoms: facial edema, palpebral edema, pectoral tightness. We think that all of the above symptoms were associated with the mass of lymph nodes in the supraclavicular, mediastinum, and sternum. We report this case of breast cancer with local recurrence after initial therapy 24 years later, suggesting that possible recurrence of this disease with more than a 24-year latency period should be taken into consideration.Breast cancer is a kind of malignant tumor and a serious threat to women's health and life. A survey of womanbreast cancer statistics in the United States offered by the American Cancer Society[8] showed that about 226,870 new cases of breast cancer and 39,510 deaths were predicted to occur among US women in 2012. In 1996, the study of Demicheli et al[9] demonstrated that the recurrence after mastectomy appeared to be double-peaked, with the first peak at about 18 months after mastectomy and the second at about 60 months. Although tardus breast cancer metastasis could occur in 15 years after surgery, most patients’ metastases (about 75%) occurred in 5 years after the initial diagnosis, especially in 3 years. The study of Largillier et al[3] showed that the median time to recurrence and metastasis was 23.1 months, and the result of Andre et al[4] was 29 months.The differences in the recurrence and survival of patients with breast cancer may be related to the tumor size, age, menopause status, individual biological differences, therapeutic method, and so on. Primary tumor size is an important factor affecting prognosis. Behm et al[10] had found that the primary tumor that is more than 2-cm diameter has higher recurrent risk. The controversy about the influence of age on breast cancer survival still exists in current studies. Young patients represent a unique entity as they have specific issues including personal and clinical aspects, such as the much higher malignant tumors that will lead to a worse prognosis.[11-13] However, some researches showed that age is not an independent prognostic factor when comparing with characteristics and treatment of breast cancer.[14] A study of Demicheli et al[15] proved that among premenopausal women, the recurrence after mastectomy also appeared to be double-peaked, the first narrow peak at about 8 to 10 months after mastectomy and the second peak was at 28 to 30 months; while among postmenopausal patients, the peak appeared at about 18 to 20 months. It has been widely confirmed that adjuvant chemotherapy after surgery can effectively reduce the recurrence rate. Extension therapy by tamoxifen or aromatase inhibitor after 5 years of tamoxifen and for a total duration of 10 years significantly reduces further the risk of late recurrence and improves overall survival.[16] In recent years, with the in-depth study of molecular biology, the expression of ER/PR receptor had played more and more important effect in the prognosis of breast cancer.[17-19] The prognosis of HER2-positive and triple negative breast cancer was worse than that of Luminal subtype.The patient had taken Tamoxifen for 5 years after the operation, Tamoxifen is considered the standard therapy for nonmenopausal female patients. Endocrine therapy is a compulsory step in the adjuvant management of early breast cancer expressing the estrogen receptor, by reducing as much as possible serum and tissue levels of estrogens. Increasing evidence[20] supports the use of extended endocrine therapy with tamoxifen for 5 years to reduce breast cancer recurrence and mortality, while low adherence to adjuvant endocrine therapy for women with breast cancer increases the risk of recurrence and death. We regard high adherence to adjuvant endocrine therapy may be 1 reason for our patient’ long disease-free survival (DFS).In breast cancer, upregulation of STC-1 and STC-2 expression was observed in patients who experienced later relapse and considered as the factors contributing to tumor dormancy.[21-23] And they may be exploited as biomarkers for metastasis and targeted therapy in humanbreast cancer via activation of phosphoinositide 3-kinase (PI3K)/AKT or Protein Kinase C (PKC)/Claudin-1-mediated signaling pathway.[22,23] Delayed recurrences in this case report of breast cancer are well explained by the concept of tumor dormancy. As Meng et al[24] reported circulating tumor cells (CTCs), which are shed from persisting tumor in patients with cancer dormancy, are present in 33% of patients who survived many years after mastectomy without disease. The phenomena of dormant tumor are also associated with tumor stem cells (TSC).[25] Some related studies have revealed a close association between breast cancer TSC markers, including ALDHA1 and CD133, and tumor angiogenesis which is considered the leading factor to the growth and metastasis of tumors.[26] The persistence of stem cells may help explain why solid tumors, which were successfully eliminated after various forms of radiation and chemotherapy, almost inevitable relapse in later stage. Unfortunately, we are currently in the little understanding of the dormant cancer cells. When we know more information about the biological mechanism of that, we may have ability to explore an appropriate method to treat diseases related to dormancy, then more and more cancerpatients are able to gain much longer survival.
Authors: L C Collins; J D Marotti; S Gelber; K Cole; K Ruddy; S Kereakoglow; E F Brachtel; L Schapira; S E Come; E P Winer; A H Partridge Journal: Breast Cancer Res Treat Date: 2011-11-13 Impact factor: 4.872
Authors: Nils D Arvold; Alphonse G Taghian; Andrzej Niemierko; Rita F Abi Raad; Meera Sreedhara; Paul L Nguyen; Jennifer R Bellon; Julia S Wong; Barbara L Smith; Jay R Harris Journal: J Clin Oncol Date: 2011-09-06 Impact factor: 44.544
Authors: Ibnu Purwanto; Johan Kurnianda; Kartika W T Hariadi; Teguh Aryandono; Kunta Setiaji; Mardiah S Harianti; Sofia M Haryana Journal: Acta Med Indones Date: 2011-01
Authors: Vanya Van Belle; Ben Van Calster; Olivier Brouckaert; Isabelle Vanden Bempt; Saskia Pintens; Vernon Harvey; Paula Murray; Björn Naume; Gro Wiedswang; Robert Paridaens; Philippe Moerman; Frederic Amant; Karin Leunen; Ann Smeets; Maria Drijkoningen; Hans Wildiers; Marie-Rose Christiaens; Ignace Vergote; Sabine Van Huffel; Patrick Neven Journal: J Clin Oncol Date: 2010-08-16 Impact factor: 44.544
Authors: Eirene C Behm; Kerri R Beckmann; Jane E Dahlstrom; Yanping Zhang; Carolyn Cho; Robin Stuart-Harris; Paul Craft; Angela Rezo; John M Buckingham Journal: Breast Date: 2013-03-22 Impact factor: 4.380
Authors: Hee Jin Shim; Sung Hun Kim; Bong Joo Kang; Byung Gil Choi; Hyeon Sook Kim; Eun Suk Cha; Byung Joo Song Journal: Asian Pac J Cancer Prev Date: 2014
Authors: T Igarashi; K Itoh; H Fujii; T Ohtsu; H Minami; Y Sasaki; W Shimizu; T Ogino; M Muramatsu Journal: Jpn J Clin Oncol Date: 1998-04 Impact factor: 3.019