Xiao-Dan Zhong1,2,3Li-Juan Chen2,3Xin-Yang Xu2,3Yan-Jun Liu1,2,3Fan Tao2,3Ming-Hui Zhu2,3Chang-Yun Li2,3Dan Zhao1,2,3*
Guan-Jun Yang1,2,3*
Jiong Chen1,2,3*- 1State Key Laboratory for Managing Biotic and Chemical Threats to the Quality and Safety of Agro-products, Ningbo University, Ningbo, China
- 2Laboratory of Biochemistry and Molecular Biology, School of Marine Sciences, Ningbo University, Ningbo, China
- 3Key Laboratory of Applied Marine Biotechnology of Ministry of Education, Ningbo University, Ningbo, China
Breast cancer (BC) is a common malignancy that mainly occurred in women and it has become the most diagnosed cancer annually since 2020. Berberine (BBR), an alkaloid extracted from the Berberidacea family, has been found with broad pharmacological bioactivities including anti-inflammatory, anti-diabetic, anti-hypertensive, anti-obesity, antidepressant, and anticancer effects. Mounting evidence shows that BBR is a safe and effective agent with good anticancer activity against BC. However, its detailed underlying mechanism in BC treatment remains unclear. Here, we will provide the evidence for BBR in BC therapy and summarize its potential mechanisms. This review briefly introduces the source, metabolism, and biological function of BBR and emphasizes the therapeutic effects of BBR against BC via directly interacting with effector proteins, transcriptional regulatory elements, miRNA, and several BBR-mediated signaling pathways. Moreover, the novel BBR-based therapeutic strategies against BC improve biocompatibility and water solubility, and the efficacies of BBR are also briefly discussed. Finally, the status of BBR in BC treatment and future research directions is also prospected.
Introduction
Breast cancer (BC) is one of the most common cancers in women and is characterized by a malignant proliferation of mammary tissue (1–3). In 2020, BC has overtaken lung cancer and become the leading diagnosed and death-causing cancer among women all over the world (4–7). BC is a heterogeneous disease and it can be classified into different subtypes based on diverse molecular biomarkers (8). According to the statuses of four molecular biomarkers, namely, estrogen receptor (ER), progesterone receptor (PR), human epidermal growth factor receptor 2 (HER2), and Ki67, BC can be classified into four main intrinsic subtypes: luminal A, luminal B, HER2-enriched, and triple-negative (1, 8). Luminal A subtype is characterized with ER+/PR+/HER2-/Ki-67low biomarkers and low recurrence risk and favorable prognosis. Luminal B subtype is characterized with ER+/PR-/HER2+/Ki-67high biomarkers. HER2-enriched is the third subtype of BC characterized with ER-/PR-/HER2+ biomarkers. Triple-negative BC (TNBC) is the subtype of BC with ER-/PR-/HER2- biomarkers and the poorest prognosis in clinical studies (7–11).
Currently, there are many methods comprehensively and extensively used in BC therapy. Surgery, radiotherapy, and chemotherapy are the most common therapeutic strategies used to treat all the subtypes of BC in clinic, but most patients would develop drug resistance or relapse later. For the moment, endocrine or single-targeted therapy only has been approved to treat non-TNBC in clinic, and most of them showed poor prognosis and recurrence due to tumor metastasis and drug resistance (11–13), suggesting that a portion of patients develop medicine resistance and experience severe side effects after Western medicine treatment (14). For TNBC, although many novel target therapeutic strategies have been identified and their modulators exhibited good anti-BC activities in vitro and in vivo, none of them have been approved in clinic due to poor efficacy in clinical trials and potent side effects (11). Therefore, it is extremely eager to seek a more effective conservative and multi-target therapeutic agent that could treat cancer without residual symptoms to patients. Traditional Chinese medicine (TCM) as a therapeutic strategy for varieties of diseases has been used for thousands of years and shows remarkable validation in many diseases. With the development of standardization of TCM, some extracted monomers also show excellent efficacy against different diseases. Among them, alkaloid berberine (BBR) exhibited good efficacy against BC. Here, we summarize the source and biological function of BBR, action mechanisms, and novel therapeutic strategies using BBR against BC. Moreover, the strategies to improve the efficacies of BBR against human BC are also briefly discussed.
The overview of BBR
BBR, a pentacyclic isoquinoline compound with a relative molecular weight of 336.37 (Figure 1), is a bioalkaloid initially found in the rhizome, bark, and other structures of Chinese herb Coptis chinensis Franch, and some berberis plants mainly including Berberis aristate DC., Berberis darwinii Hook, and Berberis vulgaris L (15–17). The later study demonstrated that BBR could be also extracted from some other plants (18). With the aid of UDG glucuronosyltransferase and cytochrome (19), BBR could be transformed into four major types of metabolites: berberrubine, demethyleneberberine, thalifendine, and jatrorrhizine in the liver and intestine in vivo (20, 21). Interestingly, the type and quantity of metabolites the metabolites are different in distinct species (22).
Figure 1 Schematic illustration of the effect of BBR on signaling pathways of apoptosis and cell cycle arrest in BC.
BBR, a traditional Chinese medicine, has been used to clear heat and detoxify toxins, promote blood circulation and remove blood stasis, and dispel dampness and cold for over one thousand years (23). Recently, a substantial body of studies showed that BBR has diverse pharmacological effects including anti-hypertensive, anti-oxidative, anti-inflammatory, anti-diabetic, immunosuppressive (24), anti-cardiovascular (21), and neuroprotective activities (3, 6, 25, 26). Therefore, BBR was widely used to treat lots of infectious, metabolic, cardiovascular, and neurological diseases. Notably, BBR also could prevent and treat some different cancers triggered by gene mutations and agricultural hazard factors (27). The mounting evidence suggested that BBR inhibited proliferation as well as induced apoptosis and cell cycle arrest in different cancer cell lines without significant cytotoxicity effect on most non-malignant epithelial cell lines (28–31). Due to its good activity to prevent, inhibit, and reverse the progression of varieties of cancers, BBR has received remarkable interest as a potential anticancer agent in the treatment of many cancers, especially for BC (32).
The molecular targets of BBR against BC
BBR is a multi-target drug that has been proved effective in treating many cancers and inflammatory diseases. It has been found to combat different cancers via binding to diverse molecular targets due to the heterogeneity among different cancers or different subtypes of same cancer. In BC, BBR has also been found to directly bind several target proteins and DNA sequences to exhibit its anticancer activity.
SIK3
Salt-inducible kinases 3 (SIK3) is an oncogene that plays an important role in BC cells (33). The overexpression of SIK3 promotes BC cell proliferation and growth via regulating the cell cycle (34). Meanwhile, BBR is found to function as a SIK3 inhibitor through binding its ATP-binding pocket via hydrogen bonding. Further study found that BBR exhibited its anticancer activity partially via binding to SIK3 and inducing cell cycle arrest at G1/S cell cycle arrest and apoptosis in BC cells (35).
Ephrin-B2
Ephrin-B2, a single transmembrane cell surface protein (36), is one of the membrane-bound ligands of the eph receptor family (37). The binding of eph receptor and ephrin-B2 in the membrane activates ephrin-B2 signaling (38). This signaling promotes the cancer cell survival and migration via conveying both receptor-expressing cells and ligand-expressing cells (39–41). Ma et al. identified that BBR could directly bind ephrin-B2 and significantly reduce ephrin-B2 level and its downstream proteins (42). The result showed that BBR inhibits the BC survival and migration via targeting ephrin-B2 (42).
LSD1
Histone lysine demethylase 1 (LSD1) is a histone demethylase selectively eliminating the methyl group from histone H3 at H3K4me1/2 and H3K9me1/2 and modulating the transcriptional repression and activation of downstream genes (43, 44). Meanwhile, BC metastasis is associated with the phosphorylation of LSD1 (45). Several studies demonstrated that the stability and degradation of LSD1 could be regulated by ubiquitination and phosphorylation modifications (46). To be specific, reducing ubiquitination levels by deubiquitinase or raising phosphorylation of LSD1 by kinases could inhibit its degradation and increase its stability via reducing its ubiquitination level (47). Given that LSD1 could also function as a coactivator via demethylating H3K9me1/2 and activating transcription by interacting with androgen receptor (AR) and ER, two receptors that mediated the BC progression (48, 49), it is identified as a promising target for BC therapy (49). As a mainly bioactive product of C. chinensis Franch, BBR has exhibited its anticancer activity via directly binding to LSD1, inducing the accumulation H3K9me1/2 and suppressing downstream suppressor genes in BC (50–52). Hence, BBR might exhibit its anticancer effect via partially targeting LSD1 in BC.
DNA, TATA box, and poly(A) tails
The nitrogen atom at the 7-position of BBR has a positive charge and this exceptional structure could strongly bind with DNA sequences with negative charge (Figure 1) (53, 54). The binding between BBR and DNA would lead to DNA damage in cancer cells via regulating the cellular DNA topoisomerase activity (55). Caspase-3 and caspase-9 are proteolytic enzymes that are activated by apoptotic factors, including some target cellular enzymes such as Fas ligand (FasL). BBR could induce the expressions of these apoptotic factors to activate caspase-9 and caspase-3 (56). DNA damage response (DDR) induces cell cycle arrest and apoptosis through the caspase-9 and caspase-3 or Fas/FasL signaling pathway when DNA damage cannot be successfully repaired in time (55, 57) and promotes autophagy to demonstrate its qualities to suppress tumor (58, 59). Therefore, BBR-mediated DDR of cancer cells is also a prospective protein treatment.
Additionally, TATA box is an element that takes part in the process of gene transcription (60). Some results indicated that DNA TATA box and mRNA poly (A) tails played a vital part in the modulation of gene expression, and they are the first and second mainly important targets of BBR to regulate gene transcript (61). In the mechanism, the binding between BBR and TATA box/mRNA poly(A) tails would alter the spatial conformation of these DNA/RNA sequences (60, 61), regulate the transcription of downstream genes, and thus inhibit the BC progression (62). Thus, TATA boxes and poly(A) tails also partially contribute to the anti-BC activity of BBR.
MicroRNA (miR)-214-3p and SCT
MiR-214-3p is a tumor suppressor functioning by inducing cell apoptosis and G2/M arrest of BC cells (63). Secretin (SCT) is an oncogene with an anti-proliferative effect in normal cells but a proliferation-stimulating activity in cancer cells (64). BBR was also found to exhibit its antitumor effects in MCF-7 and MDA-MB-231 BC cells via upregulating tumor suppressor microRNA (miR)-214-3p and reducing SCT level (63, 64). Further study showed that BBR exhibited its anti-BC activities via directly binding to targeted binding sites within both miR-214-3p and SCT (65). In addition, BBR could raise the miR-214-3p expression and reduce SCT level via β-catenin–mediated inactivation of telomerase activity (66).
The BBR-mediated pathways of against BC
BBR suppresses proliferation and migration of BC cells via ZO-1 mediated Wnt/β-catenin signaling pathway
Zonula occludence-1 (ZO-1) is a key molecule tightly attached to other proteins, such as Wnt/β-catenin. Wnt/β-catenin is a membrane-linked protein that could be activated via dissociating from the membrane. The activation of Wnt/β-catenin signaling promotes tumor cell proliferation and migration (67). ZO-1 was found to be activated by BBR, which lead to enhancing the binding of ZO-1 and the cyclin-dependent kinase 4 (CDK4) and reducing CDK4 entry into the nucleus (68, 69). Then, the free Wnt/β-catenin level was also downregulated, which suppresses cancer cell proliferation via induced cell cycle arrest (70, 71). The present study also demonstrated that BBR inhibited the proliferation and migration of BC cells partially via inactivating the ZO-1–mediated Wnt/β-catenin signaling pathway.
BBR induced cell cycle arrest of BC cells through upregulating p21 and p27
P21 and p27 are the key CDK inhibitors (CDKIs) that induce apoptosis and cell cycle arrest in varieties of cells (72). The increase of mRNA and protein expression levels of p21 and p27 is beneficial to inhibit the expressions of diverse cyclins including cyclin D1, cyclin E, cyclin K2, cyclin K4, and cyclin K6 (73). The CDKIs would modulate cell cycle arrest in the G1 phase and induce apoptosis in different cancer cells.
Several studies proved that BBR could modulate different tumor suppressor genes (including p21 and p27) to induce cytotoxicity in BC cells, and reducing the two protein levels strongly clocks up the growth of different tumor types including BC (73). Further study indicated that BBR could induce G1 phase arrest and thus inhibit cell proliferation via upregulating p21 and p27 (74).
BBR sensitizes chemical agents and overcomes drug resistance of BC cells via activating AMPK signaling
Adenosine monophosphate–activated kinase (AMPK), a sensor of energy status, plays an extremely primary part in cellular energy homeostasis and regulates the drug resistance of BC (75, 76). It is activated by hypoxia to compensate for the oxygen reduced by mitochondria respiration (77). Hypoxia-inducible factor-1alpha (HIF-1α), the primary regulator of cell response to hypoxia (78, 79), has the function to increase proliferation and drug resistance of some cancers including BC via regulating metabolic enzymes (80, 81). P-glycoprotein (P-gp) is a critical obstacle to reduce drug accumulation in cancer eradication (82). As a tumor suppressor protein (83), p53 can be activated by being modified by the phosphorylation of multiple protein kinases at multiple sites (84). Interestingly, HIF-1α, P-gp, and p53 are downstream genes of AMPK signaling, and BBR exhibits its anti-BC activity via AMPK-mediated reducing level of HIF-1α and P-gp and phosphorylating p53 (85, 86).
Doxorubicin (DOX) is the most frequently used chemical agent to treat BC in clinic. However, its effectiveness is often reduced in a hypoxic environment (87). Pan et al. found that the activation of AMPK signaling was responsible for lowering the sensitivity of BC cells to DOX. To be specific, AMPK was activated by a hypoxic environment, which upregulated the phosphorylated AMPK (p-AMPK) and HIF-1α. Then, HIF-1α raised P-gp level and thus improved the DOX sensitivity of BC cells. BBR also could overcome DOX resistance via AMPK in a time- and dose-dependent manner. Further study showed that low-dose BBR enhanced cytotoxicity and sensitized DOX sensitivity in vivo via inhibiting the AMPK pathway, whereas high-dose BBR would restrain the activation of AMPK and affect HIF-1α downregulation, which induces p53 activation that led to cell death and apoptosis (88). In conclusion, BBR enhanced sensitivity to chemical agents and drug resistance of BC mainly through activating AMPK signaling cascades (89).
BBR inhibits TPA-induced PKC-α signaling and thus reduces the levels of MMP-1 and MMP-9 in BC
Phorbol ester 12-O-tetradecanoylphorbol-13-acetate (TPA) was found to promote tumor invasion and migration in BC (90). Matrix metalloproteinases (MMPs) are key enzymes that could regulate the cellular microenvironment (91). Matrix metalloproteinase-1 (MMP-1) is the principal LCC-secreted factor that enhances the tumor-promoting traits (92). Matrix metalloproteinase-9 (MMP-9) is an enzyme which belongs to the MMP family, and its activity was related with different stages of carcinoma progression (93, 94). Several studies showed that the MMP-9 level is positively correlated with a higher tumor grade in BC tissue (95), and TPA mediated tumor invasion and migration by upregulating expression of MMP-1 and MMP-9 in BC cells (96, 97). Protein kinases C (PKCs) are a set of serine/threonine kinases involved in the tumor progression in BC (98). Protein kinase C (PKC-α) can be activated by TPA and promote MMP-1 and MMP-9 expressions (99). Meanwhile, it may be elevated in patients with lower ER levels. Further studies indicated that the TPA dose-dependently enhanced the expression levels of MMP-1 and MMP-9 via inducing phosphorylation of PKC-α (99), and BBR administration could suppress TPA-induced proliferation and formation of BC cells via blocking PKC-α/MMP signaling (100, 101). The result demonstrated that BBR also exhibited its anticancer activity via inhibiting the abnormal expressions of MMP-1 and MMP-9 during invasion and proliferation of cancer (102, 103). Here, PKC-α/MMPs signing may be also a potential signaling that mediated the anticancer activity of BBR.
BBR-based combined strategies for BC treatment
BBR and curcumin
Curcumin (CUR) is a natural phenolic product distilled from the rhizome of Curcuma Longa L. and its main functions are similar to BBR (104). Both natural products are famous for their multiple pharmacological properties such as anticancer and anti-inflammation activities (105, 106). Many studies revealed that CUR and BBR exhibited outstanding anticancer properties with low toxicity in multiple cancer types (69, 107). Apoptosis and autophagy have been shown to interrelate by many complex mechanisms (108). Clinical analysis revealed that CUR and BBR have the pharmacological capability to mediate autophagic and apoptosis in multiple cancer cells via diverse signaling pathways, such as p-Jun N-terminal kinase (JNK) signaling, Beclin1/Bcl-2 signaling, and ERK signaling.
JNK is found to mediate autophagy in response to cell stresses in cellulo (109). Beclin1, a protein only consisting of Bcl-2 homology 3 domain, is also a vital initiator of autophagy (110). Bcl-2 and Bax belong to Bcl-2 family proteins. Bcl-2 protein is anti-apoptotic, whereas Bax protein is pro-apoptotic (111). Extracellular signal–regulated protein kinases (EKRs) play important roles in cell proliferation and apoptosis, and they could block apoptotic and induce proliferation by enhancing the expressions of pro-survival genes and reducing associated genes, such as Bcl-2 and Bax (112). Mounting evidence showed that the JNK activation increased phosphorylated Bcl-2 level and dissociation of the Beclin1/Bcl-2 complex (109). Then, the dissociated Beclin1 would induce autophagy. He et al. confirmed that combined therapy using CUR and BBR increases phosphorylated Bcl-2 via activating the JNK pathway (108, 113, 114).
ERK is a signaling regulator modulating the proliferation, growth, and survival in most of cell lines (114). However, its activation is also found to mediate cell death in some cell types (115). CUR or BBR treated alone has been found to activate ERK signaling via phosphorylating ERK in many cancer cells, whereas their combined use significantly enhanced ERK phosphorylation and then raised Bax level and reduced the expression of Bcl-2. Meanwhile, the upregulated Bax/Bcl-2 ratio would inhibit the proliferation of cancer cells via inducing apoptosis (11).
All the results strongly suggested that the combined treatment using BBR and CUR significantly improved anticancer efficacy via inducing autophagy and apoptosis of BC cells through the JNK/Beclin1/Bcl-2 pathway and ERK signaling. This combined strategy may be a promising medicine to treat BC.
BBR and emodin
Emodin (EMO) is a natural anthraquinone compound extracted from several medicinal plants and it has been found to exhibit anticancer effects in BC by regulating several signaling pathways (116). SIK3 belongs to the AMP-activated protein kinase family, and it is required for the mTOR/AKT signaling pathway to mediate the proliferation of BC cells. Serine/threonine kinase (AKT), a regulator modulating the cell cycle progression and survival, is also a factor involved in anticancer effect in BC cells (117). The activation of AKT signaling contributes to tumor progression and drug resistance in various types of cancer (118). The mammalian target of rapamycin (mTOR), a highly conserved kinase, is an important regulatory factor to control translation and proliferation in different cancer cell lines. SIK3 is overexpressed and enhances the phosphorylation of AKT in the BC. Then, the phosphorylated AKT is activated, promotes G1/S cell cycle progression, and finally leads to cell proliferation and survival of cancer cells (119). BBR and EMO were identified as potent SIK3 inhibitors in BC via directly binding to the ATP binding pocket of SIK3 by hydrogens. One of the possible mechanisms was that BBR and EMO inhibited the expression of SIK3 via inactivating the AKT signaling pathway and inducing G1/S cell cycle arrest and apoptosis of BC cells (30). In addition, some results revealed that the combined therapy using BBR and EMO significantly decreased the phosphorylation of AKT compared with either a single treatment in BC cells (35). It is worth mentioning that the combined therapy did not affect the growth of non-tumorigenic cells, suggesting that this strategy may be an effective method to treat BC.
Cancer cells consume a lot of glucose to maintain their persistent proliferation, and mTOR-induced aerobic glycolysis provides the source for this process (120). mTOR is also a kinase regulated by SIK3 and plays crucial roles in BC proliferation. Phosphorylation of p70 S6 kinase 1 (p-S6K1) and phosphorylated E4 binding protein 1 (p4EBP1) are two downstream targets of mTOR, and SIK3 regulates the mTOR signalling pathway and promotes the proliferation of BC cells via promoting phosphorylation of them at residues T389 and T37/46, respectively (63, 121). Meanwhile, EMO and BBR alone or combined administration could inhibit mTOR signaling and growth cell cycle arrest, and apoptosis of BC cells via downregulating phosphorylation levels of p-S6K1 (T389) and p4EBP1(T37/46) (35). Current results suggested that the combination of BBR and EMO inhibits proliferation and growth in BC cells. To sum up, BBR and EMO suppress growth and proliferation through the inactivation of SIK3-induced mTOR and AKT signaling pathways.
Conclusions
BBR has exhibited distinct pharmacological activities in different diseases. In this mini-review, the source and biological function of BBR have been summarized, and the anticancer effects of BBR on BC and its underline mechanisms have been also systematically described. The review demonstrated that BBR exhibited its anti-BC effects through binding to the effector proteins/miRNA/DNA regulatory sequences and thus inhibiting multiple cancer-related signaling (Figure 1). Notably, there are several reported molecular targets for BBR in other cancers such as receptor retinoid X receptor alpha (RXRα) (71), protein tyrosine phosphatase 1B (PTP1B) (122), TNF receptor–associated factor 6 (TRAF6) (123), and angiotensin-converting enzyme (ACE), and these proteins also play important roles in BC; further studies are necessary to investigate the roles of these targets in BBR-mediated anti-BC effects. BBR not only could directly bind to oncogenes ephrin-B2, SIK3, and LSD1 and inactivated their functions in BC but also modulated the transcription of some cancer-related genes via directly binding to their cis-acting elements. In addition, BBR has been found to inhibit cancer cell proliferation and invasion via several signaling pathways (Table 1).
Table 1 The reported pathways and molecular targets regulated by BBR in different BC cell lines.
Although BBR exhibited potential anti-BC activity in preclinical studies, there are several predicaments to overcome before it was been advanced into clinical treatment against BC. Firstly, several studies showed that BBR exhibited low toxicity to healthy cells and human beings (126, 127). It could also lead to some adverse events, such as constipation and nausea (128, 129). In addition, some patients injected with BBR through intramuscular and intravenous had presented allergic reactions (130). Moreover, the poor oral bioavailability and low water solubility of BBR could reduce its anticancer activities (131). Currently, several strategies have been introduced to improve the efficacy of BBR against BC and reduce side effects in vivo. Combined therapy using BBR and other natural compounds is proved to significantly improve the anti-BC activity of BBR via inducing more effective apoptosis and reducing the dose of BBR (65, 103). Apart from combined therapy, conjugating BBR with other chemical agents is also an efficient strategy to improve the anticancer activity of BBR for BC therapy (132, 133). Qin et al. found that a conjugator via linker BBR to platinum (II) complex significantly improved the in vitro and in vivo anti-BC activity (134). In addition, drug delivery using nanocarriers is widely used to improve cell penetration, biocompatibility, and in vivo efficacy, and this method is also an applicant for improving bioavailability and the efficacy of BBR against BC (135–137). Moreover, chemical modification is also a potent strategy to improve cell penetration, and water soluble anti-tumor activity of BBR and several BBR derivatives have been designed and exhibited better anti-BC efficacy than their lead compound BBR (132, 138–141).
In conclusion, although some studies showed that BBR induced apoptosis of some BC cell lines and sensitized BC cells to chemotherapy via interfering with some pathways, the detailed mechanisms of the BBR are unclear, and more potential anti-tumor pathways or targets are yet to clarify due to the heterogeneity of BC. Further research would make a thorough inquiry regarding the clinical effect of BBR and whether the combined therapy/nanocarriers/chemical modifications could show a more valid effect on patients and reduce the side effects. Meanwhile, it is imperative to consider the treatment cycle and degree of BBR in clinic. In short, further studies are warranted to define the therapeutic role of BBR as an anticancer drug in BC.
Author contributions
X-DZ: Writing-Original draft preparation. L-JC and C-YL: Prepared figures and Tables. X-YX, Y-JL, FT, and M-HZ: Resources, Conceptualization, Investigation and Validation, Writing reviewing and editing. DZ, G-JY and JC: Supervision, Funding acquisition, Conceptualization, Writing reviewing and editing. The authors contributed to the data preparation and drafted and revised the manuscript. All authors contributed to the article and approved the submitted version.
Funding
This work is supported by the National Natural Science Foundation of China (31972821), the General Scientific Research Project of Education of Zhejiang Province (Y202147351), the Starting Research Fund of Ningbo University (421912073), Student Research and Innovation Program of Ningbo University (2022SRIP1818), and State Key Laboratory for Managing Biotic and Chemical Threats to the Quality and Safety of Agro-products (2010DS700124-ZZ2008).
Conflict of interest
The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest.
Publisher’s note
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Keywords: Breast cancer, berberine, apoptosis, autophagic, cell cycle arrest
Citation: Zhong X-D, Chen L-J, Xu X-Y, Liu Y-J, Tao F, Zhu M-H, Li C-Y, Zhao D, Yang G-J and Chen J (2022) Berberine as a potential agent for breast cancer therapy. Front. Oncol. 12:993775. doi: 10.3389/fonc.2022.993775
Received: 25 July 2022; Accepted: 09 August 2022;
Published: 02 September 2022.
Edited by:
Hui Jia, Shenyang Medical College, ChinaReviewed by:
Madhuri Sharon, Walchand Centre for Research in Naynotechnology and Bionanotechnolog, IndiaYi Zhu, Chengdu University of Traditional Chinese Medicine, China
Copyright © 2022 Zhong, Chen, Xu, Liu, Tao, Zhu, Li, Zhao, Yang and Chen. This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
*Correspondence: Guan-Jun Yang, Y2hhbXBpb24yMDE0QDEyNi5jb20=; Jiong Chen, amNoZW4xOTc1QDE2My5jb20=; Dan Zhao, emhhb2RhbjJAbmJ1LmVkdS5jbg==