Startseite Mechanism research on inhibition of gastric cancer in vitro by the extract of Pinellia ternata based on network pharmacology and cellular metabolomics
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Mechanism research on inhibition of gastric cancer in vitro by the extract of Pinellia ternata based on network pharmacology and cellular metabolomics

  • Fan Feng EMAIL logo , Ping Hu , Jun Chen , Lei Peng , Luyao Wang , Xingkui Tao EMAIL logo und Chaoqun Lian EMAIL logo
Veröffentlicht/Copyright: 18. Februar 2025

Abstract

Background and purpose

Gastric cancer is a kind of malignant tumor with high incidence and high mortality, which has strong tumor heterogeneity. A classic Chinese medicine, Pinellia ternata (PT), was shown to exert therapeutic effects on gastric cancer cells. However, its chemical and pharmacological profiles remain to be elucidated. In the current study, we aimed to reveal the mechanism of PT in treating gastric cancer cells through metabolomic analysis and network pharmacology.

Methods

Metabolomic analysis of two strains of gastric cancer cells treated with the Pinellia ternata extract (PTE) was used to identify differential metabolites, and the metabolic pathways were enriched by MetaboAnalyst. Then, network pharmacology was applied to dig out the potential targets against gastric cancer cells induced by PTE. The integrated network of metabolomics and network pharmacology was constructed based on Cytoscape.

Results

The PTE was confirmed to significantly inhibit cell proliferation, migration, and invasion of HGC-27 and BGC-823 cells. The results of cellular metabolomics showed that 61 metabolites were differently expressed in gastric cancer cells of the experimental and control groups. Through pathway enrichment analysis, 16 metabolites were found to be involved in the glycerophospholipid metabolism, purine metabolism, sphingolipid metabolism, and tryptophan metabolism. Combined with network pharmacology, seven bioactive compounds were found in PT, and the networks of bioactive compound–target gene–metabolic enzyme–metabolite interactions were constructed.

Conclusions

In conclusion, this study revealed the complicated mechanisms of PT against gastric cancer. Our work provides a novel paradigm to identify the potential mechanisms of pharmacological effects derived from a natural compound.

1 Introduction

Gastric cancer is a malignant tumor originating from the gastric mucosal epithelium, which has highly heterogeneous characteristics. The incidence rate of gastric cancer shows a younger trend due to changes in diet, increased work pressure, and Helicobacter pylori infection [1]. According to the latest data from GLOBOCAN 2020, gastric cancer accounts for 7.7% of 10 million cancer deaths worldwide, ranking the fourth cause of death after lung cancer, colorectal cancer, and liver cancer [2]. Despite the numerous advances in targeted therapy for gastric cancer, the overall long-term outcomes of patients have not significantly improved [3,4,5,6]. A large number of studies have found that the components of traditional Chinese medicine (TCM) have the effects of inducing cell apoptosis and inhibiting cell proliferation, and then it can reduce symptoms, inhibit tumor development, and prolong the survival to improve the quality life of patients [7,8,9]. Most currently available chemotherapy drugs, including paclitaxel, vincristine, and vinblastine, are all derived from natural sources [10,11]. Therefore, the clinical prevention and treatment of gastric cancer utilizing the multi-component combination of TCM has garnered research attention.

Pinellia ternata (PT), which belongs to the Araceae family, has been widely used in China, Korea, and Japan as a valuable medicinal plant [12]. Modern pharmacological research has demonstrated that PT contains a large number of alkaloids, iridoids, iridoid glycosides, anthraquinones, anthraquinone glycosides, fatty acids, and their derivatives [13,14]. Pharmacological studies have demonstrated that PT has multiple activities, especially antitumor activity [15,16]. Numerous clinical Chinese medicine treatments have shown that PT can inhibit the proliferation and migration of gastric cancer cells, thereby alleviating the symptoms of gastric cancer patients [17]. However, the specific mechanism by which these components inhibit the proliferation of gastric cancer cells remains unclear. Unlike western medicine’s “one target, one drug” concept, TCM emphasizes the concept of the integrity of the whole human body [18]. Because of its complexity in composition, conventional pharmacological approaches to experimentally identify the unique action of mechanism may not be applicable to TCM research [19]. Network pharmacology meets the key ideas of the holistic philosophy of TCM. As a state-of-the-art technique, this method updates the research paradigm from the current “one target, one drug” mode to a new “network target, multicomponents” mode. Nonetheless, network pharmacology is limited by the single computational methods that rely on public databases [20]. Network pharmacology alone could only predict the possibility of compound–target combination and pathway analysis.

Along with the rapid development of bioinformatics, the newly emerging metabolomics based on big databases has become a useful tool to characterize the action mechanisms of complicated drug system in detail, from the molecular level to the pathway level [21,22,23,24]. Metabolomics has been employed in many fields, including the diagnosis and treatment of diseases, biomarker discovery, and exploration of disease pathogenesis [25,26,27]. Numerous studies have shown that metabolomics integrated network pharmacology is an effective method for studying the mechanism of action of TCM [28,29,30]. Therefore, we integrated metabolomics with network pharmacology for analyzing the mechanism of action of PT. This strategy is expected to help better understand the therapeutic principles of natural compounds like PT used in the treatment of gastric cancer.

In the current study, we used computational tools and resources to investigate the effect of the pharmacological network of PT on gastric cancer to predict its active compounds and potential protein targets and pathways. In addition, in vitro experiments were also conducted to validate the potential underlying mechanism of PT in gastric cancer, as predicted by the network pharmacology approach. Meanwhile, a gastric cancer cell metabolomic analysis was performed to reveal the synergetic metabolic mechanisms in terms of metabolites and metabolic pathways. Subsequently, the targets from network pharmacology and the metabolites from cell metabolomics were jointly analyzed to filter crucial metabolism pathways using MetScape. The detailed technical strategy of the current study is shown in Figure 1.

Figure 1 
               Technical strategy of the current study.
Figure 1

Technical strategy of the current study.

2 Materials and methods

2.1 Cell experiments

2.1.1 Reagents

The tubers of PT were collected from the experimental field at Suzhou University, which was authenticated by Professor Jianping Xue at the College of Life Sciences, Huaibei Normal University. Chemical reagents such as methanol and ethanol (analytical grade) were purchased from China National Pharmaceutical Group Co., Ltd.

2.1.2 Preparation of herb extracts

The extract of Pinellia ternata (PTE) was prepared as follows. Two kilograms of PT tubers were soaked in 70% ethanol (1:8, w/v) overnight, and the supernatant was collected by centrifugation at 5,000 rpm. The precipitate was extracted twice with 70% ethanol for 2 h, and the supernatant was collected and combined with the previously obtained supernatant. Later, the extract was vacuum-concentrated and freeze-dried into powder and stored at −80°C (the drug extract ratio was 13.8%).

2.1.3 Cell culture and cell viability determination

Human gastric cancer cells HGC-27 and BGC-823 were chosen in our lab for the following experiments. The cells were cultured in Dulbecco’s modified Eagle’s medium (DMEM) supplemented with 10% fetal bovine serum, 100 U/mL penicillin, and 100 mg/mL streptomycin and maintained at 37°C in a humidified chamber with 5% CO2.

The human gastric cancer cells (5,000 cells/well) were inoculated into 96-well plates and incubated for 24 h. After pretreatment with different concentrations of PTE (0, 0.0125, 0.025, 0.05, 0.10, 0.20, 0.40, and 0.80 μg/μL) for 48 h, 10 μL of 3-(4,5-dimethylthiazol-2-yl)-2,5-diphenyltetrazolium bromide (MTT, 5 mg/ml; Sigma, USA) solution was added to each well, and then the cells were cultured at 37°C for another 4 h. Then, the supernatants were discarded, and 100 μL of DMSO was added to each well. The absorbance was measured at 490 nm using a Multiskan MS microplate reader (Labsystems, Finland). The half-maximal inhibitory concentration (IC50) of gastric cancer cells treated with PTE was calculated by using the GraphPad Prism software.

2.1.4 Cell wound-healing and transwell invasion assays

For the transwell invasion assay, Millicell cell culture inserts in 24-well plates were pretreated with 100 μL of cold Matrigel (BD Biosciences, USA, diluted 1:4 with cold PBS) for 2 h at 37°C. Gastric cancer cells (1 × 105 cells/well) were seeded into the chamber with 200 μL of serum-free DMEM and then incubated with or without PTE at 37°C for 24 h. The invaded cells were fixed with 4% paraformaldehyde for 30 min, stained with crystal violet solution for 2 h, and then counted with a light microscope.

For the wound-healing assay, gastric cancer cells were incubated in 6-well plates with 100% confluence. The denuded area was scrapped using a plastic pipette tip on the cell monolayer. The medium was removed, and the monolayer was washed three times with PBS. Then, the medium with or without PTE was added to each well, and cell movements in the wound area were obtained after 24 h of incubation with a microscope.

2.2 UPLC–MS metabolomics analysis

2.2.1 Experimental grouping and sample preparation

The HGC-27 and BGC-823 cells were each cultured in 100 mm cell Petri dish separately and cultured overnight to make the cells to adhere to the wall. The cells were divided into a blank control group and an intervention group, treated with PTE at a concentration 0 or IC50, with six parallel samples in each group. Therefore, the treated HGC-27 and BGC-823 cells were divided into four groups: Control-H, PTE-H, Control-B, and PTE-B. After 48 h, the Petri dish was washed three times with precooled PBS and then digested with trypsin for 1–2 min. The suspension was centrifuged at 1,000 rpm for 5 min, the supernatant was discarded, and the cells were collected as samples.

The samples stored at −80°C were thawed on ice. A 500 μL solution (methanol:water = 4:1, v/v) containing internal standard was added into the cell sample and vortexed for 3 min. The sample was placed in liquid nitrogen for 5 min and on dry ice for 5 min, and then thawed on ice and vortexed for 2 min. This freeze–thaw cycle was repeated three times in total. The sample was centrifuged at 12,000 rpm for 10 min (4°C). Then, 300 μL of supernatant was collected and stored at −20°C for 30 min. The sample was then centrifuged at 12,000 rpm for 3 min (4°C). About 200 μL aliquots of supernatant were transferred for LC–MS analysis. The pooled quality control (QC) samples were made by mixing 10 μL aliquots of each sample (one per six samples).

2.2.2 UPLC–QTOF-MS analysis

All samples were acquired by the LC–MS system following the manufacturer’s instructions. The analytical conditions were as follows: UPLC: column, Waters ACQUITY UPLC BEH C18 1.8 µm, 2.1 mm × 100 mm; column temperature, 40°C; flow rate, 0.4 mL/min; injection volume, 2 μL; and solvent system, water (0.1% formic acid):acetonitrile (0.1% formic acid). The column was eluted with 5% mobile phase B (0.1% formic acid in acetonitrile) at 0 min, followed by a linear gradient to 90% mobile phase B (0.1% formic acid in acetonitrile) over 11 min, held for 1 min, then returned back to 5% mobile phase B within 0.1 min, held for 1.9 min, and then rapidly returned to starting conditions.

The data acquisition was performed in the information-dependent acquisition (IDA) mode using Analyst TF 1.7.1 software (Sciex, Concord, ON, Canada). The source parameters were set as follows: ion source gas 1 (GAS1), 50 psi; ion source gas 2 (GAS2), 50 psi; curtain gas (CUR), 35 psi; temperature (TEM), 550°C or 450°C; declustering potential, 60 V or −60 V in positive or negative mode, respectively; and ion spray voltage floating, 5,000 V or −4,000 V in positive or negative mode, respectively.

2.2.3 Data analysis

The original data file acquired by LC–MS was converted into mzML format using ProteoWizard software. Peak extraction, peak alignment, and retention time correction were performed using the XCMS program. The “SVR” method was used to correct the peak area. The peaks with detection rate lower than 50 % in each group of samples were discarded. After that, metabolic identification information was obtained by searching the laboratory’s self-built database, integrated public database, AI database, and metDNA. SIMCA-P 14.1 software (Umetrics, Sweden) was used to conduct principal component analysis (PCA), partial least-squares discriminant analysis (PLS-DA), and orthogonal partial least-squares (OPLS) analysis of the normalized data. Based on variable important in projection (VIP) values (VIP > 1) and T-test (p < 0.05), the differential abundant metabolites were selected between the control group and the model group and identified according to the online databases: mzCloud (https://www.mzcloud.org/), HMDB (http://www.hmdb.ca), ChemSpider (http://www.chemspider.com), and KEGG (http://www.kegg.jp) [31]. The Venn diagram was drawn according to the guidance method of online software (https://cloud.metware.cn/#/user/login). Pathway analysis was conducted with MetaboAnalyst [32]. Parameters (p value <0.05) were used as the index to determine the most relevant pathways.

2.3 Network pharmacology analysis

2.3.1 Bioactive component screening

The information on compounds present in PT was obtained from databases such as TCMSP (http://tcmspw.com/) [33]. The active compounds were filtered by integrating OB (≥30%) and DL (≥0.18) [34]. In addition, compounds with definite pharmacological effects were also selected for further research, even though they have low OB or DL values.

2.3.2 Target protein prediction of drug components in PT

The protein targets of the active substances in PT were retrieved from the TCMSP database by using the filter search bar of the related targets of the compound component. Meanwhile, the annotated genome database platform GeneCards, the protein database UniProt, and the online database KOBAS were used to query the human gene names corresponding to the target proteins.

2.3.3 Construction of the protein–protein interaction (PPI) network and screening of its core targets

For construction of the PPI and screening, the following steps were carried out. Log in to the String database online, find the search mode “multiple protein” box, enter the common target proteins of PT and gastric cancer into the String database (https://string-db.org/Version 10.5), and select human (Homo sapiens) as search species condition, convert the common target name, set the PPI score to >0.7, obtain the visual interaction map of the PPI network, manually hide the free protein that appears outside the network, and export the PPI relationship map. According to the node degree value, the key core genes of the PPI network were screened out.

2.3.4 Pathway enrichment analysis

To explore the combination mechanisms of PT against gastric cancer, pathway enrichment analysis was performed using the DAVID Bioinformatics Resources 6.8 server [35], and GO and KEGG pathway enrichment analyses of drugs–key chemical components–disease targets were carried out. Pathways with p values less than or equal to 0.05 were selected.

2.3.5 Network construction

Combined with the identification and screening of drug target proteins in Section 2.3.3, the gastric cancer target proteins were mapped to each other to obtain common target proteins, and then the related information about the drug active ingredient and the common target proteins was imported into Cytoscape 3.7.1 software for data processing. The visual network of drugs–bioactive components–disease targets was constructed and obtained. Among them, nodes were used to represent key chemical components and disease targets, and solid lines with arrows were used to represent the interaction between nodes.

2.3.6 Joint pathway analysis

The targets from network pharmacology and the metabolites from cell metabolomics were jointly analyzed to select crucial metabolism pathways by MetaboAnalyst [36].

2.4 Statistical analysis

Each independent experiment was repeated at least three times. Statistical analysis between two groups was performed by using Student’s t test through SPSS software (SPSS Inc., USA). Variance analysis between multiple groups followed by Tukey’s test was used to calculate the statistical significance of the differences. Multiple groups of normalized data were analyzed using one-way ANOVA. Data were shown as mean ± standard deviation. If not specified above, a p-value of less than 0.05 was considered to indicate a statistically significant difference.

3 Results

3.1 Inhibitory effect of PT on the proliferation of gastric cancer cells

To verify the antiproliferative effect of PTE on gastric cancer cells, HGC-27 and BGC-823 cells were each treated with PTE at different concentrations for 48 h (Supplementary File S1). The results showed that the inhibition rate of HGC-27 and BGC-823 cells significantly increased with the increase of PTE concentration, indicating that PTE had a significant inhibitory effect on the growth of gastric cancer cells (Figure 2). The IC50 values of HGC-27 and BGC-823 cells treated with PTE were calculated to be 1.76 and 2.20 μg/μL, respectively. For the convenience of subsequent experiments, 1.76 μg/μL PTE was selected for treatment of both cell lines.

Figure 2 
                  Effects of PTE on the viability of HGC-27 and BGC-823 gastric cancer cells at different concentrations.
Figure 2

Effects of PTE on the viability of HGC-27 and BGC-823 gastric cancer cells at different concentrations.

3.2 PT inhibits the invasion and migration of gastric cancer cells

In order to investigate the effects of PTE on gastric cancer cells cultured in vitro, cell migration and invasion experiments were conducted. As shown in Figure 3, the wound-healing assay indicated that the speed of migration was slower in HGC-27 and BGC-823 cells treated with PTE and showed that it could obviously inhibit gastric cancer cell migration at 1.76 μg/μL concentration. In addition, compared with control groups, the speed of invasion was slower in HGC-27 and BGC-823 cells treated with PTE (Figure 4). These experiments indicated that the PTE could significantly inhibit cell migration and invasion in vitro.

Figure 3 
                  Effects of PTE on the migration of HGC-27 and BGC-823 cells. * represents p < 0.05 compared with the control group.
Figure 3

Effects of PTE on the migration of HGC-27 and BGC-823 cells. * represents p < 0.05 compared with the control group.

Figure 4 
                  Effects of PTE on the invasion of HGC-27 and BGC-823 cells. * represents p < 0.05 compared with the control group.
Figure 4

Effects of PTE on the invasion of HGC-27 and BGC-823 cells. * represents p < 0.05 compared with the control group.

3.3 Results of metabolomics analysis in gastric cancer cells treated with PT

3.3.1 Multivariate data analysis

The typically based peak intensity chromatograms of the HGC-27 and BGC-823 gastric cancer cell samples were analyzed in both negative and positive modes (Figure S1). The PCA score chart indicated that the model group was distinguished from the control group (Figure 5a). Moreover, the QC group was gathered, which indicated that the instrument was stable (Figure 5a). Pearson correlation analysis was conducted on QC samples, and the correlation between QC samples was greater than 0.99 (Figure S2), indicating good stability and high data quality throughout the testing process. As shown in Figure 5a, significant separation between the PTE and control groups was observed in the PCA score 3D plots, indicating that the metabolic disturbances could be obviously induced by PTE treatment. Compared with those in the control group, the metabolic changes in the HGC-27 group were more obvious than those in the BGC-823 group. Further cluster analysis results showed that, after PTE treatment, there were significant differences in the metabolites of different gastric cancer cell lines, with small individual differences within the same group (Figure 5b).

Figure 5 
                     PCA and cluster analysis of overall metabolites. (a) PCA-3D score chart of overall metabolites from LC–MS data in positive and negative modes. (b) Overall cluster diagram of the metabolites. Data were calculated by the Pearson correlation method after mean centering and unit variance scaling.
Figure 5

PCA and cluster analysis of overall metabolites. (a) PCA-3D score chart of overall metabolites from LC–MS data in positive and negative modes. (b) Overall cluster diagram of the metabolites. Data were calculated by the Pearson correlation method after mean centering and unit variance scaling.

3.3.2 Identification of differential endogenous metabolites

After data preprocessing, a total of 4,335 metabolites were identified in gastric cancer cells of the 4 groups (Supplementary File S2). To identify the potential metabolites that contributed to metabolic distinction, we conducted PCA (Figure 6a), OPLS-DA (Figure 6b), and ANOVA, followed by FDR. The OPLS-DA model showed good separability with high R 2 Y (R 2 Y = 0.975, p < 0.005) and Q 2 (Q 2 = 0.886, p < 0.005) values (Figure S3), indicating good explanatory ability of sample classification information and cross-validated predictive capability. The S plots of OPLS-DA were constructed based on the VIP values (Figure 6c), which revealed the variety of metabolites.

Figure 6 
                     Identification of differential endogenous metabolites. (a) PCA score plots. (b) OPLS-DA score plot. (c) S-plot of OPLS-DA. (d) Venn diagram of the potential metabolites associated with PTE treatment on gastric cancer cells.
Figure 6

Identification of differential endogenous metabolites. (a) PCA score plots. (b) OPLS-DA score plot. (c) S-plot of OPLS-DA. (d) Venn diagram of the potential metabolites associated with PTE treatment on gastric cancer cells.

Based on VIP > 1 and p < 0.05, 403 metabolites in HGC-27 gastric cancer cells were differentially expressed between the PTE-H and Control-H groups, 573 metabolites in BGC-823 gastric cancer cells were differentially expressed between the PTE-B and Control-B groups, and 399 metabolites in gastric cancer cells were differentially expressed between the PTE groups (PTE-H and PTE-B) and Control groups (Control-H and Control-B) (Supplementary File S3-5). Through Venn plot analysis, it was found that there were 143 common metabolic differences between the PTE-treated gastric cancer cell group and the control group (Figure 6d).

3.3.3 Metabolic pathway analysis

The 143 differential metabolites were imported into KEGG compound database to search their matching KEGG ID, and only 61 metabolites could be identified with the KEGG ID (Supplementary File S6). Then, these metabolites were imported into MetaboAnalyst to explore the potential anti-gastric cancer mechanisms of PT, and 16 metabolites could be matched for further pathway analysis. As shown in Figure 7, based on the p-value pathway less than 0.05, four pathways in the gastric cancer cells were significantly affected, including glycerophospholipid metabolism, purine metabolism, sphingolipid metabolism, and tryptophan metabolism (Figure S4). The metabolites related to these pathways were phosphatidylcholine, 1-acyl-sn-glycero-3-phosphocholine, choline, phosphatidate, adenosine monophosphate (AMP), inosine monophosphate (IMP), inosine diphosphate (IDP), sn-glycero-3- phosphocholine, xanthosine, hypoxanthine, sphingomyelin, sphingosine, l-serine, 5-hydroxy-l-tryptophan, l-formylkynurenine, and indoleacetaldehyde (Table 1).

Figure 7 
                     Metabolic pathway analysis. The horizontal axis represents the influence value of the pathway and the vertical axis represents the significance impact value of the signal pathway.
Figure 7

Metabolic pathway analysis. The horizontal axis represents the influence value of the pathway and the vertical axis represents the significance impact value of the signal pathway.

Table 1

Differential metabolites related to the inhibitory effect of PT on gastric cancer cells detected by UPLC–MS

No. Metabolites TR (min) m/z Formula VIP P Fold change Trend KEGG ID Scan mode
1 Phosphatidylcholine 12.35 785.59 C26H52NO8P 1.32 2.71 × 10−2 1.36 C00157 +
2 1-Acyl-sn-glycero-3-phosphocholine 9.20 579.42 C30H62NO7P 1.39 3.38 × 10−2 0.65 C04230
3 Choline 3.95 393.54 C20H44NO4P 1.51 3.81 × 10−2 1.69 C00114
4 sn-Glycero-3-phosphocholine 0.74 257.10 C8H20NO6P 1.41 4.65 × 10−3 1.84 C00670 +
5 AMP 1.08 347.06 C10H14N5O7P 1.48 3.02 × 10−2 1.32 C00020
6 Phosphatidate 3.09 998.48 C43H85O19P3 1.50 5.02 × 10−3 1.75 C00626
7 IMP 0.74 348.05 C10H13N4O8P 2.35 5.27 × 10−6 1.91 C00130
8 IDP 0.74 428.01 C10H14N4O11P2 1.72 1.68 × 10−2 1.44 C00104
9 Xanthosine 1.64 284.07 C10H12N4O6 1.89 1.56 × 10−3 3.12 C01762
10 Hypoxanthine 1.08 136.04 C5H4N4O 1.13 4.49 × 10−2 1.81 C00262
11 Sphingomyelin 12.22 812.68 C47H93N2O6 1.85 4.26 × 10−4 0.72 C00550 +
12 Sphingosine 6.17 299.28 C18H37NO2 2.98 6.41 × 10−4 3646.44 C00319 +
13 l-Serine 0.68 105.04 C3H7NO3 2.63 1.09 × 10−8 10.23 C00065
14 5-Hydroxy-l-tryptophan 2.03 220.08 C11H12N2O3 2.54 3.46 × 10−4 3.60 C00643
15 l-Formylkynurenine 2.49 236.08 C11H12N2O4 1.21 1.85 × 10−2 1.92 C02700 +
16 Indoleacetaldehyde 2.39 159.07 C10H9NO 1.36 1.71 × 10−2 1.65 C00637

3.4 Network pharmacological analysis results of PT

A total of 116 chemical components of PT were retrieved from the TCMSP database by keyword screening. Setting the inclusion criteria as DL ≥ 0.18 and OB ≥ 30%, a total of 13 candidate compounds were retrieved (Table S1). Among them, 24-ethylcholest-4-en-3-one, β-sitosterol, poriferast-5-en-3beta-ol, cavidine, baicalin, stigmasterol, and other components have drug-like properties of more than 75%, suggesting that these chemical components may play a key regulation role in the function of medicine in the human body. A total of 175 human target genes were matched from the 13 compound components searched through the TCMSP database. After deduplication, 99 target genes were finally obtained.

Then, the 13,731 target genes of gastric cancer were obtained from the GeneCards database by using “Gastric cancer” as the screening keyword, then a total of 4,559 genes were obtained by setting the correlation score greater than or equal to 6. Combining the screened 99 drug targets for mutual mapping, 99 common target genes were obtained. The relationship between these 13 compounds and 99 target protein was analyzed by Cytoscape software to construct a network visualization map of drugs–key chemical components–disease targets, as shown in Figure 8.

Figure 8 
                  Drugs–bioactive components–disease targets network for PT on gastric cancer. The red nodes represent the PT drug, the yellow nodes represent candidate active compounds, and green nodes represent potential protein targets. The edges represent the interactions between these nodes.
Figure 8

Drugs–bioactive components–disease targets network for PT on gastric cancer. The red nodes represent the PT drug, the yellow nodes represent candidate active compounds, and green nodes represent potential protein targets. The edges represent the interactions between these nodes.

3.5 Integrated analysis of metabolomics and network pharmacology

To obtain a comprehensive view of the mechanisms of PT against gastric cancer cells, we constructed an interaction network based on metabolomics and network pharmacology. Differentially abundant metabolites were imported into the MetScape plugin in Cytoscape to construct the metabolite–reaction–enzyme–gene networks. As shown in Figure 9, 51 metabolic enzymes associated with 16 differentially abundant metabolites were identified.

Figure 9 
                  Compound–reaction–enzyme–gene networks of the key metabolites. The red hexagons, gray diamonds, green rectangles, and blue ovals represent the metabolite compounds, reactions, enzymes, and genes, respectively.
Figure 9

Compound–reaction–enzyme–gene networks of the key metabolites. The red hexagons, gray diamonds, green rectangles, and blue ovals represent the metabolite compounds, reactions, enzymes, and genes, respectively.

To further investigate how the target genes of effective components in PT regulate metabolic enzymes to differentially express metabolites, the above 99 target protein and 51 metabolic enzymes were analyzed for protein interaction via the DAVID database. Through interrelated mappings, 69 target genes of 7 compounds in PT were found to be closely related to 26 metabolic enzymes in gastric cancer cells, which produced 13 differential metabolites (Figure 10). The affected pathways were glycerophospholipid metabolism, purine metabolism, sphingolipid metabolism, and tryptophan metabolism. These compounds may play essential roles in the inhibitory effect of PT on gastric cancer cells.

Figure 10 
                  Networks of drug–bioactive components–target genes–metabolic enzymes–metabolites. The red diamond node represents PT drug, green circle nodes represent the candidate active components in PT, blue square nodes represent the target genes of the active components, yellow hexagon nodes represent the key metabolic enzymes, and the purple arrow nodes represent the key metabolites.
Figure 10

Networks of drug–bioactive components–target genes–metabolic enzymes–metabolites. The red diamond node represents PT drug, green circle nodes represent the candidate active components in PT, blue square nodes represent the target genes of the active components, yellow hexagon nodes represent the key metabolic enzymes, and the purple arrow nodes represent the key metabolites.

4 Discussion

PT, a TCM, has the effect of reducing nausea and vomiting, which can be used to treat vomiting and nausea, protect the gastric mucosa, promote the repair of the gastric mucosa, and have the effect of resisting stress ulcers [37]. Our experiments showed that the PTE could significantly inhibit the proliferation, migration, and invasion of gastric cancer cells in vitro. By using network pharmacology methods, 13 ingredients in PT were selected through the TCMSP database, mainly including sterols, alkaloids, flavonoids, and cyprinosides. The results of modern pharmacological research showed that these categories of compounds played an important role in regulating tumorigenesis, suggesting that the network pharmacology for screening effective active ingredients of drugs had important reference values [38]. However, these studies still lack research on the anti-tumor functions and have not systematically identified which components participate in the regulatory mechanisms to affect the malignant phenotype characteristics of cancer from the perspective of metabolic pathways.

Researchers are increasingly relying on metabolomics to explore disease mechanisms and intervention strategies. We identified 16 significant metabolites of PT against gastric cancer cells, as well as their related metabolic pathways. However, given the complexity and heterogeneity of metabolomics, data analysis and interpretation were collaborative efforts [39]. Network pharmacology is a system biology-based methodology [40]. It evaluates drug polypharmacological effects at a molecular level to predict the interaction of natural products and proteins as well as to determine the major mechanisms [41]. Network pharmacology can further validate the therapeutic regulation of metabolic networks and facilitate the identification of key targets and biomarkers [42]. In this study, network pharmacology greatly improved the screening of metabolites of PT against gastric cancer and explicated the action mechanisms. By combining metabolomics with network pharmacology, we found 7 bioactive compounds, 69 key targets, 26 metabolic enzymes and 13 metabolites (phosphatidylcholine, 1-acyl-sn-glycero-3-phosphocholine, choline, sn-glycero-3-phosphocholine, AMP, IMP, xanthosine, IDP, hypoxanthine, sphingosine, l-serine, 5-hydroxy-l-tryptophan, and indoleacetaldehyde), and 4 related pathways (glycerophospholipid metabolism, purine metabolism, sphingolipid metabolism, and tryptophan metabolism). This strategy provides a suitable method to verify the results of the two approaches. It is also practicable to screen metabolites and targets in other natural compounds.

Phospholipids are mainly divided into two categories: glycerol phospholipids and sphingosine phospholipids, which are the main components of cell membranes. Changes in phospholipid metabolism directly affect cell membrane synthesis and cell proliferation. Multiple phospholipid molecules and their metabolic intermediates can participate in cell signal transduction, inflammation, and vascular regulation and are closely related to cell proliferation, adhesion, and movement [43,44]. Therefore, abnormal phospholipid metabolism is closely related to tumor occurrence, development, invasion, and metastasis. Glycerophospholipid metabolism regulates the metabolites of tumors, mainly including glycerophospholipids, lysophosphatidic acid, choline, phosphocholine, phosphatidate, and phosphatidylcholine. These metabolites can affect the proliferation, differentiation, and apoptosis of tumor cells, thereby affecting the occurrence and development of tumors [45]. By regulating these metabolites, new anti-tumor drugs and treatment strategies can be developed [46]. Sphingolipid metabolism, also known as neural sphingolipid metabolism, plays an important role in regulating tumors. Sphingolipids activate signal transduction by stimulating the formation of cell membrane microdomains, thereby regulating cell proliferation, differentiation, apoptosis, and tumor metastasis. Specifically, some molecules in sphingolipid metabolism, such as sphingosine and sphingosine-1-phosphate, can affect the migration and metastasis of tumor cells [47]. These molecules increase cancer cell migration and metastasis by stimulating intercellular communication within tumors. In addition, these molecules may also affect the survival of tumor cells, affecting their growth and proliferation by regulating their survival signal transduction. Interestingly, converting sphingolipids to glycerophospholipids could facilitate cancer progression in human hepatocellular carcinoma and colon cancer [48]. All these studies suggest that PT may inhibit the proliferation of gastric cancer cells by promoting glycerophospholipid metabolism and sphingolipid metabolism.

Purine metabolism represents a potential therapeutic pathway in cancer therapy. Purine, an abundant substrate in organisms, is a critical raw material for cell proliferation and an important factor for immune regulation [49]. The purine de novo pathway and salvage pathway are tightly regulated by multiple enzymes, and dysfunction in these enzymes leads to excessive cell proliferation and immune imbalance that result in tumor progression [50]. For example, inosine strongly enhances the proliferation of human melanoma cells, and the altered ratio of adenosine to inosine has been widely noticed in cancer cells, affecting the growth, invasiveness, and metastasis [51]. Meanwhile, purines serve as potent modulators in the response of immune cells and cytokine release via various receptor subtypes, such as P2X ligand-gated ion channels and G protein-coupled P2Y receptors [52], which are substantially involved in the development of oncogenesis and tumorigenesis [53]. Xanthosine is catalyzed by the substrate xanthine or xanthosine 5’-phosphate through the activity of purine-nucleoside phosphorylase or 5’-nucleotidase. The levels of xanthosine, IDP, IMP, AMP, and hypoxanthine are increased in PTE-treated gastric cancer cell groups. Studies have shown that administration of xanthosine did not affect the proportion of epithelial stem cells in bovine breast tissues but had potential negative effects on cell proliferation, and tumor development in mice was also limited by xanthosine administration [54]. Studies also indicated that 5-aminoimidazole-4-carboxamide riboside combined with methotrexate exerted synergistic anticancer action against human breast cancer and hepatocellular carcinoma [55]. Therefore, PT may inhibit the proliferation of gastric cancer cells through purine metabolism, especially by changing the metabolic levels of xanthosine, IDP, IMP, AMP, and hypoxanthine.

Tryptophan is an essential amino acid available from one’s diet by ingestion of food containing it. About 95% of the free tryptophan in the human body undergoes catabolism through the kynurenine pathway, participating in the regulation of immunity, neuronal function, and intestinal homeostasis [56]. Tryptophan metabolic imbalance has attracted great attention in the treatment of cancer and neurodegenerative diseases, especially targeted the regulation of rate limiting enzymes such as amine oxidase, tryptophan-5-monooxygenase, and arylformamidase [57,58]. In this study, indole-3-acetaldehyde, 5-hydroxy-l-tryptophan, and l-formylkynurenine were found to be abnormally expressed in gastric cancer cells treated with PTE compared with the control group. Indole-3-acetaldehyde was synthesized from the substrate tryptamine through the activity of amine oxidase. 5-Hydroxy-l-tryptophan was synthesized from the substrate l-tryptophan by the activity of tryptophan-5-monooxygenase. l-Formylkynurenine was synthesized from the substrate l-kynurenine through the activity of arylformamidase. Current research has found that there is still a lack of research on the correlation of three metabolites indole-3-acetaldehyde, 5-hydroxy-l-tryptophan, and l-formylkynurenine with tumors. Interestingly, the latest research has found that tryptophan metabolites 5-hydroxytryptamine and 3-hydroxyanthranilic acid could protect tumor cells from iron death and promote tumor growth [59]. This indicates that PT may inhibit the proliferation of gastric cancer cells by promoting tryptophan metabolism.

5 Conclusions

In this study, we have demonstrated that PT inhibited the proliferation, migration, and invasion of gastric cancer cells. Subsequently, 13 key metabolites and 4 important metabolic pathways were identified through cell metabolomics screening. Combined with network pharmacology, we identified 7 effective active components, and the association network, PT–bioactive component–target gene–metabolic enzyme–metabolite, was constructed. This is the first development of a new comprehensive strategy based on metabolomics and network pharmacology to explore key targets and mechanisms of PT in the treatment of gastric cancer. This study provides data and theoretical support for in-depth research on its mechanism of action, laying the foundation for clinical applications. Further systematic molecular biology experiments are needed to verify the accurate mechanism. It also provides a new paradigm to determine the potential mechanisms of pharmacological effects of natural compounds.

Abbreviations

DL

drug likeness

PT

Pinellia ternata

OB

oral bioavailability

PPI

protein–protein interaction

TCM

traditional Chinese medicine


# Fan Feng and Ping Hu are co-first authors contributed equally to this work.

tel: +86-557-2871037, fax: +86-557-2871037

Acknowledgements

Not applicable.

  1. Funding information: This study was supported by the Suzhou University’s 2021 School-Level Scientific Research Platform (2021XJPT34 and 2021XJPT38ZC), the Key Natural Science Project of Anhui Provincial Education Department (2023AH052241 and 2023AH052242), the Anhui Provincial Health Research Project (AHWJ2023A20289 and AHWJ2023A10057), the Suzhou University Scientific Research Development Fund Project (2021fzjj03), and the Suzhou University Scientific Research Platform Open Project (2022ykf02).

  2. Author contributions: F.F. and P.H. conceived and designed the experiments; X.K.T. performed the experiments; J.C., L.Y.W., and L.P. participated in the detection of cell metabolomics and analyzed the data; F.F., P.H., X.K.T., and C.Q.L. drafted the manuscript. All authors have been involved in critically revising the manuscript and have approved the final version.

  3. Conflict of interest: The authors state that they have no conflict of interest.

  4. Data availability statement: The data that support the findings of this study are available from the corresponding author upon reasonable request.

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Received: 2024-05-25
Revised: 2024-12-11
Accepted: 2024-12-13
Published Online: 2025-02-18

© 2025 the author(s), published by De Gruyter

This work is licensed under the Creative Commons Attribution 4.0 International License.

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  46. RAB39B: A novel biomarker for acute myeloid leukemia identified via multi-omics and functional validation
  47. Impact of peripheral conditioning on reperfusion injury following primary percutaneous coronary intervention in diabetic and non-diabetic STEMI patients
  48. Clinical efficacy of azacitidine in the treatment of middle- and high-risk myelodysplastic syndrome in middle-aged and elderly patients: A retrospective study
  49. The effect of ambulatory blood pressure load on mitral regurgitation in continuous ambulatory peritoneal dialysis patients
  50. Expression and clinical significance of ITGA3 in breast cancer
  51. Single-nucleus RNA sequencing reveals ARHGAP28 expression of podocytes as a biomarker in human diabetic nephropathy
  52. rSIG combined with NLR in the prognostic assessment of patients with multiple injuries
  53. Toxic metals and metalloids in collagen supplements of fish and jellyfish origin: Risk assessment for daily intake
  54. Exploring causal relationship between 41 inflammatory cytokines and marginal zone lymphoma: A bidirectional Mendelian randomization study
  55. Gender beliefs and legitimization of dating violence in adolescents
  56. Effect of serum IL-6, CRP, and MMP-9 levels on the efficacy of modified preperitoneal Kugel repair in patients with inguinal hernia
  57. Effect of smoking and smoking cessation on hematological parameters in polycythemic patients
  58. Pathogen surveillance and risk factors for pulmonary infection in patients with lung cancer: A retrospective single-center study
  59. Necroptosis of hippocampal neurons in paclitaxel chemotherapy-induced cognitive impairment mediates microglial activation via TLR4/MyD88 signaling pathway
  60. Celastrol suppresses neovascularization in rat aortic vascular endothelial cells stimulated by inflammatory tenocytes via modulating the NLRP3 pathway
  61. Cord-lamina angle and foraminal diameter as key predictors of C5 palsy after anterior cervical decompression and fusion surgery
  62. GATA1: A key biomarker for predicting the prognosis of patients with diffuse large B-cell lymphoma
  63. Influencing factors of false lumen thrombosis in type B aortic dissection: A single-center retrospective study
  64. MZB1 regulates the immune microenvironment and inhibits ovarian cancer cell migration
  65. Integrating experimental and network pharmacology to explore the pharmacological mechanisms of Dioscin against glioblastoma
  66. Trends in research on preterm birth in twin pregnancy based on bibliometrics
  67. Four-week IgE/baseline IgE ratio combined with tryptase predicts clinical outcome in omalizumab-treated children with moderate-to-severe asthma
  68. Single-cell transcriptomic analysis identifies a stress response Schwann cell subtype
  69. Acute pancreatitis risk in the diagnosis and management of inflammatory bowel disease: A critical focus
  70. Effect of subclinical esketamine on NLRP3 and cognitive dysfunction in elderly ischemic stroke patients
  71. Interleukin-37 mediates the anti-oral tumor activity in oral cancer through STAT3
  72. CA199 and CEA expression levels, and minimally invasive postoperative prognosis analysis in esophageal squamous carcinoma patients
  73. Efficacy of a novel drainage catheter in the treatment of CSF leak after posterior spine surgery: A retrospective cohort study
  74. Comprehensive biomedicine assessment of Apteranthes tuberculata extracts: Phytochemical analysis and multifaceted pharmacological evaluation in animal models
  75. Relation of time in range to severity of coronary artery disease in patients with type 2 diabetes: A cross-sectional study
  76. Dopamine attenuates ethanol-induced neuronal apoptosis by stimulating electrical activity in the developing rat retina
  77. Correlation between albumin levels during the third trimester and the risk of postpartum levator ani muscle rupture
  78. Factors associated with maternal attention and distraction during breastfeeding and childcare: A cross-sectional study in the west of Iran
  79. Mechanisms of hesperetin in treating metabolic dysfunction-associated steatosis liver disease via network pharmacology and in vitro experiments
  80. The law on oncological oblivion in the Italian and European context: How to best uphold the cancer patients’ rights to privacy and self-determination?
  81. The prognostic value of the neutrophil-to-lymphocyte ratio, platelet-to-lymphocyte ratio, and prognostic nutritional index for survival in patients with colorectal cancer
  82. Factors affecting the measurements of peripheral oxygen saturation values in healthy young adults
  83. Comparison and correlations between findings of hysteroscopy and vaginal color Doppler ultrasonography for detection of uterine abnormalities in patients with recurrent implantation failure
  84. The effects of different types of RAGT on balance function in stroke patients with low levels of independent walking in a convalescent rehabilitation hospital
  85. Causal relationship between asthma and ankylosing spondylitis: A bidirectional two-sample univariable and multivariable Mendelian randomization study
  86. Correlations of health literacy with individuals’ understanding and use of medications in Southern Taiwan
  87. Correlation of serum calprotectin with outcome of acute cerebral infarction
  88. Comparison of computed tomography and guided bronchoscopy in the diagnosis of pulmonary nodules: A systematic review and meta-analysis
  89. Curdione protects vascular endothelial cells and atherosclerosis via the regulation of DNMT1-mediated ERBB4 promoter methylation
  90. The identification of novel missense variant in ChAT gene in a patient with gestational diabetes denotes plausible genetic association
  91. Molecular genotyping of multi-system rare blood types in foreign blood donors based on DNA sequencing and its clinical significance
  92. Exploring the role of succinyl carnitine in the association between CD39⁺ CD4⁺ T cell and ulcerative colitis: A Mendelian randomization study
  93. Dexmedetomidine suppresses microglial activation in postoperative cognitive dysfunction via the mmu-miRNA-125/TRAF6 signaling axis
  94. Analysis of serum metabolomics in patients with different types of chronic heart failure
  95. Diagnostic value of hematological parameters in the early diagnosis of acute cholecystitis
  96. Pachymaran alleviates fat accumulation, hepatocyte degeneration, and injury in mice with nonalcoholic fatty liver disease
  97. Decrease in CD4 and CD8 lymphocytes are predictors of severe clinical picture and unfavorable outcome of the disease in patients with COVID-19
  98. METTL3 blocked the progression of diabetic retinopathy through m6A-modified SOX2
  99. The predictive significance of anti-RO-52 antibody in patients with interstitial pneumonia after treatment of malignant tumors
  100. Exploring cerebrospinal fluid metabolites, cognitive function, and brain atrophy: Insights from Mendelian randomization
  101. Development and validation of potential molecular subtypes and signatures of ocular sarcoidosis based on autophagy-related gene analysis
  102. Widespread venous thrombosis: Unveiling a complex case of Behçet’s disease with a literature perspective
  103. Uterine fibroid embolization: An analysis of clinical outcomes and impact on patients’ quality of life
  104. Discovery of lipid metabolism-related diagnostic biomarkers and construction of diagnostic model in steroid-induced osteonecrosis of femoral head
  105. Serum-derived exomiR-188-3p is a promising novel biomarker for early-stage ovarian cancer
  106. Enhancing chronic back pain management: A comparative study of ultrasound–MRI fusion guidance for paravertebral nerve block
  107. Peptide CCAT1-70aa promotes hepatocellular carcinoma proliferation and invasion via the MAPK/ERK pathway
  108. Electroacupuncture-induced reduction of myocardial ischemia–reperfusion injury via FTO-dependent m6A methylation modulation
  109. Hemorrhoids and cardiovascular disease: A bidirectional Mendelian randomization study
  110. Cell-free adipose extract inhibits hypertrophic scar formation through collagen remodeling and antiangiogenesis
  111. HALP score in Demodex blepharitis: A case–control study
  112. Assessment of SOX2 performance as a marker for circulating cancer stem-like cells (CCSCs) identification in advanced breast cancer patients using CytoTrack system
  113. Risk and prognosis for brain metastasis in primary metastatic cervical cancer patients: A population-based study
  114. Comparison of the two intestinal anastomosis methods in pediatric patients
  115. Factors influencing hematological toxicity and adverse effects of perioperative hyperthermic intraperitoneal vs intraperitoneal chemotherapy in gastrointestinal cancer
  116. Endotoxin tolerance inhibits NLRP3 inflammasome activation in macrophages of septic mice by restoring autophagic flux through TRIM26
  117. Lateral transperitoneal laparoscopic adrenalectomy: A single-centre experience of 21 procedures
  118. Petunidin attenuates lipopolysaccharide-induced retinal microglia inflammatory response in diabetic retinopathy by targeting OGT/NF-κB/LCN2 axis
  119. Procalcitonin and C-reactive protein as biomarkers for diagnosing and assessing the severity of acute cholecystitis
  120. Factors determining the number of sessions in successful extracorporeal shock wave lithotripsy patients
  121. Development of a nomogram for predicting cancer-specific survival in patients with renal pelvic cancer following surgery
  122. Inhibition of ATG7 promotes orthodontic tooth movement by regulating the RANKL/OPG ratio under compression force
  123. A machine learning-based prognostic model integrating mRNA stemness index, hypoxia, and glycolysis‑related biomarkers for colorectal cancer
  124. Glutathione attenuates sepsis-associated encephalopathy via dual modulation of NF-κB and PKA/CREB pathways
  125. FAHD1 prevents neuronal ferroptosis by modulating R-loop and the cGAS–STING pathway
  126. Association of placenta weight and morphology with term low birth weight: A case–control study
  127. Investigation of the pathogenic variants induced Sjogren’s syndrome in Turkish population
  128. Nucleotide metabolic abnormalities in post-COVID-19 condition and type 2 diabetes mellitus patients and their association with endocrine dysfunction
  129. TGF-β–Smad2/3 signaling in high-altitude pulmonary hypertension in rats: Role and mechanisms via macrophage M2 polarization
  130. Ultrasound-guided unilateral versus bilateral erector spinae plane block for postoperative analgesia of patients undergoing laparoscopic cholecystectomy
  131. Profiling gut microbiome dynamics in subacute thyroiditis: Implications for pathogenesis, diagnosis, and treatment
  132. Delta neutrophil index, CRP/albumin ratio, procalcitonin, immature granulocytes, and HALP score in acute appendicitis: Best performing biomarker?
  133. Anticancer activity mechanism of novelly synthesized and characterized benzofuran ring-linked 3-nitrophenyl chalcone derivative on colon cancer cells
  134. H2valdien3 arrests the cell cycle and induces apoptosis of gastric cancer
  135. 10.1515/med-2025-1283
  136. Review Articles
  137. The effects of enhanced external counter-pulsation on post-acute sequelae of COVID-19: A narrative review
  138. Diabetes-related cognitive impairment: Mechanisms, symptoms, and treatments
  139. Microscopic changes and gross morphology of placenta in women affected by gestational diabetes mellitus in dietary treatment: A systematic review
  140. Review of mechanisms and frontier applications in IL-17A-induced hypertension
  141. Research progress on the correlation between islet amyloid peptides and type 2 diabetes mellitus
  142. The safety and efficacy of BCG combined with mitomycin C compared with BCG monotherapy in patients with non-muscle-invasive bladder cancer: A systematic review and meta-analysis
  143. The application of augmented reality in robotic general surgery: A mini-review
  144. The effect of Greek mountain tea extract and wheat germ extract on peripheral blood flow and eicosanoid metabolism in mammals
  145. Neurogasobiology of migraine: Carbon monoxide, hydrogen sulfide, and nitric oxide as emerging pathophysiological trinacrium relevant to nociception regulation
  146. Plant polyphenols, terpenes, and terpenoids in oral health
  147. Laboratory medicine between technological innovation, rights safeguarding, and patient safety: A bioethical perspective
  148. End-of-life in cancer patients: Medicolegal implications and ethical challenges in Europe
  149. The maternal factors during pregnancy for intrauterine growth retardation: An umbrella review
  150. Intra-abdominal hypertension/abdominal compartment syndrome of pediatric patients in critical care settings
  151. PI3K/Akt pathway and neuroinflammation in sepsis-associated encephalopathy
  152. Screening of Group B Streptococcus in pregnancy: A systematic review for the laboratory detection
  153. Giant borderline ovarian tumours – review of the literature
  154. Leveraging artificial intelligence for collaborative care planning: Innovations and impacts in shared decision-making – A systematic review
  155. Cholera epidemiology analysis through the experience of the 1973 Naples epidemic
  156. Risk factors of frailty/sarcopenia in community older adults: Meta-analysis
  157. Supplement strategies for infertility in overweight women: Evidence and legal insights
  158. Scurvy, a not obsolete disorder: Clinical report in eight young children and literature review
  159. A meta-analysis of the effects of DBS on cognitive function in patients with advanced PD
  160. Case Reports
  161. Delayed graft function after renal transplantation
  162. Semaglutide treatment for type 2 diabetes in a patient with chronic myeloid leukemia: A case report and review of the literature
  163. Diverse electrophysiological demyelinating features in a late-onset glycogen storage disease type IIIa case
  164. Giant right atrial hemangioma presenting with ascites: A case report
  165. Laser excision of a large granular cell tumor of the vocal cord with subglottic extension: A case report
  166. EsoFLIP-assisted dilation for dysphagia in systemic sclerosis: Highlighting the role of multimodal esophageal evaluation
  167. Molecular hydrogen-rhodiola as an adjuvant therapy for ischemic stroke in internal carotid artery occlusion: A case report
  168. Coronary artery anomalies: A case of the “malignant” left coronary artery and its surgical management
  169. Rapid Communication
  170. Biological properties of valve materials using RGD and EC
  171. A single oral administration of flavanols enhances short-term memory in mice along with increased brain-derived neurotrophic factor
  172. Letter to the Editor
  173. Role of enhanced external counterpulsation in long COVID
  174. Expression of Concern
  175. Expression of concern “A ceRNA network mediated by LINC00475 in papillary thyroid carcinoma”
  176. Expression of concern “Notoginsenoside R1 alleviates spinal cord injury through the miR-301a/KLF7 axis to activate Wnt/β-catenin pathway”
  177. Expression of concern “circ_0020123 promotes cell proliferation and migration in lung adenocarcinoma via PDZD8”
  178. Corrigendum
  179. Corrigendum to “Empagliflozin improves aortic injury in obese mice by regulating fatty acid metabolism”
  180. Corrigendum to “Comparing the therapeutic efficacy of endoscopic minimally invasive surgery and traditional surgery for early-stage breast cancer: A meta-analysis”
  181. Corrigendum to “The progress of autoimmune hepatitis research and future challenges”
  182. Retraction
  183. Retraction of “miR-654-5p promotes gastric cancer progression via the GPRIN1/NF-κB pathway”
  184. Special Issue Advancements in oncology: bridging clinical and experimental research - Part II
  185. Unveiling novel biomarkers for platinum chemoresistance in ovarian cancer
  186. Lathyrol affects the expression of AR and PSA and inhibits the malignant behavior of RCC cells
  187. The era of increasing cancer survivorship: Trends in fertility preservation, medico-legal implications, and ethical challenges
  188. Bone scintigraphy and positron emission tomography in the early diagnosis of MRONJ
  189. Meta-analysis of clinical efficacy and safety of immunotherapy combined with chemotherapy in non-small cell lung cancer
  190. Special Issue Computational Intelligence Methodologies Meets Recurrent Cancers - Part IV
  191. Exploration of mRNA-modifying METTL3 oncogene as momentous prognostic biomarker responsible for colorectal cancer development
  192. Special Issue The evolving saga of RNAs from bench to bedside - Part III
  193. Interaction and verification of ferroptosis-related RNAs Rela and Stat3 in promoting sepsis-associated acute kidney injury
  194. The mRNA MOXD1: Link to oxidative stress and prognostic significance in gastric cancer
  195. Special Issue Exploring the biological mechanism of human diseases based on MultiOmics Technology - Part II
  196. Dynamic changes in lactate-related genes in microglia and their role in immune cell interactions after ischemic stroke
  197. A prognostic model correlated with fatty acid metabolism in Ewing’s sarcoma based on bioinformatics analysis
  198. Red cell distribution width predicts early kidney injury: A NHANES cross-sectional study
  199. Special Issue Diabetes mellitus: pathophysiology, complications & treatment
  200. Nutritional risk assessment and nutritional support in children with congenital diabetes during surgery
  201. Correlation of the differential expressions of RANK, RANKL, and OPG with obesity in the elderly population in Xinjiang
  202. A discussion on the application of fluorescence micro-optical sectioning tomography in the research of cognitive dysfunction in diabetes
  203. A review of brain research on T2DM-related cognitive dysfunction
  204. Metformin and estrogen modulation in LABC with T2DM: A 36-month randomized trial
  205. Special Issue Innovative Biomarker Discovery and Precision Medicine in Cancer Diagnostics
  206. CircASH1L-mediated tumor progression in triple-negative breast cancer: PI3K/AKT pathway mechanisms
Heruntergeladen am 23.10.2025 von https://www.degruyterbrill.com/document/doi/10.1515/med-2024-1131/html?srsltid=AfmBOorgJ5ddzNGr4I35r2JI9W8rmH0XKxOU5-PGIls4xsIBijqnvhAy
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