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The Dutch government said on Sunday that it had taken the “highly exceptional” decision to intervene at Chinese-owned chipmaker Nexperia over a potential “risk to Dutch and European economic security.”

The Netherlands-based firm’s owner Wingtech said on Monday that it will take actions to protect its rights and will seek government support.

The development threatens to raise tensions between the European Union and China, which have increased in recent months over trade and Beijing’s relationship with Russia.

Nexperia was forced to sell its silicon chip plant in Newport, Wales after MPs and ministers expressed national security concerns. It currently owns a UK facility in Stockport.

The Dutch government said its economic affairs ministry had invoked its Goods Availability Act over “acute signals of serious governance shortcomings” within Nexperia.

The law is designed to allow the Hague to intervene in companies under exceptional circumstances. These include threats to the country’s economic security and to ensure the supply of critical goods.

The intervention is meant to prevent a potential situation in which Nexperia’s chips would become unavailable in an emergency, said the Dutch government.

It added that Nexperia’s operations posed a “threat to the continuity and safeguarding on Dutch and European soil of crucial technological knowledge and capabilities.”

The company’s production can continue as normal, it added.

Nexperia makes semiconductors used in cars and consumer electronics.

The government statement did not detail why it thought the firm’s operations were risky. The BBC has contacted Dutch authorities for clarification.

Shanghai-listed shares in Nexperia’s parent company Wingtech fell by 10% on Monday morning.

Wingtech is among the firms the US has placed on its so-called “entity list”. Under the regulations, US companies are barred from exporting American-made goods to businesses on the list unless they have special approval.

In September, the US commerce department further tightened its restrictions, adding to the entity list any company that is majority-owned by a Chinese firm.

Introduction

Hepatocellular carcinoma (HCC) ranked as the third leading cause of cancer mortality globally in 2020, accounting for 75%-85% of primary liver cancers.¹ Treatment modalities for HCC encompass surgical resection, chemotherapy, transcatheter arterial chemoembolization (TACE), and systemic therapy. However, most HCC cases are diagnosed at advanced stages, missing the optimal window for surgical intervention. Even post-resection, HCC exhibits alarming 5-year recurrence rates ranging between 60%-70%.² Metastasis and relapse are primary factors that significantly impact patients’ long-term survival, posing a critical challenge in the overall management of HCC.³ In recent years, traditional Chinese medicine (TCM) has gained attention as a complementary approach in HCC treatment due to its multi-targeted mechanisms, including modulation of tumor growth, metastasis, and immune responses, which may improve therapeutic efficacy and reduce adverse effects.⁴ Therefore, a comprehensive understanding of the molecular mechanisms orchestrating the metastatic cascade is crucial for advancing HCC treatment, potentially revealing new therapeutic targets and integrative strategies.

Tumor metastasis remains the leading cause of cancer-related mortality worldwide.⁵ During this complex process, tumor cells must detach from the primary lesion, degrade the extracellular matrix (ECM), intravasate into the bloodstream, survive circulatory stress, extravasate, and ultimately colonize distant organs.⁶ Among the many factors influencing this metastatic cascade, anoikis resistance and hypoxia are two critical stress responses that significantly contribute to tumor progression.^7,8 Anoikis, or anchorage-dependent programmed cell death, is typically induced when epithelial cells lose contact with the ECM.⁷ However, epithelial-derived tumor cells frequently acquire anoikis resistance during malignant transformation, particularly in metastatic settings, which enables them to survive in suspension, traverse the vasculature, and establish metastases.⁹ HCC, which arises from epithelial hepatocytes and exhibits strong vascularity, often displays features of anoikis resistance, facilitating hematogenous dissemination.¹⁰ In parallel, hypoxia is a hallmark of the solid tumor microenvironment (TME) and plays a pivotal role in promoting tumor aggressiveness. HCC frequently experiences intratumoral hypoxia due to rapid proliferation and abnormal vasculature.¹¹ Hypoxia not only enhances invasion and migration but also sustains cancer stemness through the activation of oncogenic pathways such as Wnt/β-catenin.¹² Furthermore, hypoxia profoundly reshapes the tumor immune microenvironment (TIME) by modulating immune cell infiltration, inducing immunosuppressive phenotypes, and promoting immune evasion, which collectively facilitate tumor progression and metastasis.¹³ Although both hypoxia and anoikis resistance are critical in HCC progression, they are often studied separately, with limited focus on their combined effects.

Long non-coding RNA (lncRNA), a class of transcripts longer than 200 nucleotides, have emerged as important regulators of tumor biology, including proliferation, metastasis, recurrence, prognosis, and therapeutic response.^14–17 LncRNAs can be functionally categorized into immune-related, hypoxia-responsive, EMT-related, and anoikis-associated types.^18–21 For instance, hypoxia-responsive lncRNAs such as LINC00839 are transcriptionally activated under oxygen-deprived conditions and modulate tumor proliferation and immune evasion.¹⁸ Likewise, anoikis-related lncRNAs such as AL031985.3 and AC026412.3 promote anchorage-independent survival and enhance metastatic potential.²¹ Although both hypoxia- and anoikis-related lncRNAs have been individually studied in HCC, integrated analyses remain scarce. To the best of our knowledge, no prior studies have systematically combined hypoxia- and anoikis-related lncRNA signatures to define molecular subtypes or predict immune landscape and prognosis in HCC. Given the converging effects of these stress responses on tumor stemness, immune suppression, and metastasis, their integration may yield a more comprehensive understanding of tumor biology and guide treatment stratification.

In this investigation, hypoxia- and anoikis-related lncRNAs were identified, and gene expression datasets and clinical data of liver cancer patients were retrieved from TCGA GDC API and GSE43619 databases. The study aimed to explore the interplay between hypoxia- and anoikis-related lncRNAs and the prognosis of HCC patients. By utilizing hypoxia- and anoikis-related lncRNAs, HCC was stratified into two molecular subtypes, with comparative evaluations of immunophenotypic characteristics across these subsets. Furthermore, a prognostic model centered around hypoxia- and anoikis-related lncRNAs was developed to decipher their associations with HCC prognosis and tumor immunophenotype (Figure 1). This research effort contributes to understanding the implications of hypoxia- and anoikis-related lncRNAs in HCC, unveiling new avenues for metastasis biomarkers and clinical interventions.

Figure 1 Research process. (A) Identification of Hypoxia- and anoikis-related lncRNA genes. (B) Construction and validation of gene prognostic model. (C) Experimental verification.

Materials and Methods

Data Sources

RNA-seq data from TCGA GDC API (https://gdc.cancer.gov/developers/gdc-application-programming-interface-api) were utilized to download expression data and clinical follow-up information of LIHC samples. The RNA-Seq data from TCGA-LIHC removed samples without survival time and status, converted Ensembl to Gene symbol, transformed the expression matrix into TPM format, and performed log2 conversion. The TCGA-LIHC cohort was used for the construction and internal validation of the risk model. Additionally, gene expression data and clinical information from the GSE188608 and GSE103581 cohorts were downloaded from the Gene Expression Omnibus (GEO) database (https://www.ncbi.nlm.nih.gov/geo/). These datasets were specifically used to identify hypoxia- and anoikis-related lncRNAs.

The GSE43619 dataset was also obtained from GEO and used for external validation of the constructed prognostic model. Platform-specific annotation files were used to map probe IDs to gene symbols, and the average expression value was taken when multiple probes corresponded to a single gene. Subsequently, 365 HCC samples and 50 adjacent control samples were acquired. For the GSE43619 data, the annotation information of the corresponding chip platform was downloaded, and probes were mapped to genes where the mean value was considered as the gene expression. This research utilized secondary datasets that had been fully de-identified and contained no personally identifiable information; therefore, ethical approval was not required. As the data originated from publicly accessible genomic databases and the study did not involve any direct contact with human subjects or implementation of invasive procedures, informed consent was waived. In accordance with relevant ethical guidelines on the use of public data, this study meets the criteria for exemption from both ethical review and informed consent requirements.

Differential lncRNA Identification and Risk Model Construction

Utilizing the ConsensusClusterPlus package, a consistency matrix was constructed through consistency clustering, and the samples were classified based on specific parameters. The clustering algorithm was set to “km” with a distance of “euclidean”. The process was repeated 500 times with an 80% sampling ratio each time to ensure clustering reliability. For ConsensusClusterPlus analysis, the optimal number of clusters (k) was selected based on the cumulative distribution function (CDF) curve and delta area plot. The most stable clustering was observed when k = 2.

Differential lncRNA Identification

Differential analysis between C1 and C2 subtypes was conducted using the limma package with an FDR threshold of 0.05. Subsequently, the survival R package was employed to perform univariate Cox proportional hazard regression on the differential genes, considering a significance level of p < 0.05. For LASSO-Cox regression, the lambda parameter was determined using 10-fold cross-validation to minimize partial likelihood deviance, and the value of lambda.min was selected. Stepwise multivariate regression analysis further reduced the gene set.

Prognostic Model Construction and Validation

LASSO Cox regression analysis was utilized to reduce the number of genes with key genes and correlation coefficients determined through stepwise regression. The risk score for each patient was calculated using a specific formula. The optimal threshold for dividing high and low-risk groups was determined using the survminer package. Kaplan-Meier and ROC analyses were performed to evaluate the prognostic classification of RiskScore using the R software package timeROC.

Immune Infiltration and Therapy Response Prediction

Various packages like GSVA, ESTIMATE, CIBERSORT, TIDE, and pRRophetic were utilized for immune infiltration evaluation and immunotherapy prediction.²² The Immunophenoscore (IPS) was calculated, and the sensitivity of chemotherapy drugs was predicted.

Gene Set Enrichment Analysis (GSEA)

GSEA was employed to analyze different biological processes across molecular subtypes using the HALLMARK pathway gene set downloaded from the molecular feature database (https://www.gseamsigdb.org/gsea/msigdb/).

Cell Culture and Real-Time Fluorescence Quantitative PCR (RT-qPCR)

Human HCC cell line Li-7 (RRID:CVCL_3840) was provided by the stem cell bank of the Chinese Academy of Sciences. Cells were cultured in 1640 (Gibco, USA) medium containing 10% fetal bovine serum at 37 °C and 5% CO₂. The number of 1×10⁶ cells was placed in an ultra-low adsorption 6-well plate and cultured for 24 h under hypoxia conditions containing 1% O₂, 5% CO₂, and 37 °C. All experiments were divided into 3 replicates. Total RNA was extracted using RNeasy Mini Kit (Magen, China) and cDNA was synthesized using PrimeScript TM RT Master Mix (Takara, China). The primers were designed and synthesized by servicebio. RT-qPCR was performed using TB Green^® Premix Ex Taq TM II and LightCycler 480 System. The results show that it is 2^−ΔΔCt. The mRNA expression of 5 lncRNAs was randomly detected, and GAPDH was selected as the internal reference gene. All experiments were divided into 3 replicates. The primer sequence is detailed in Table 1.

Table 1 Primers Used for RT-qPCR

Western Blotting

The cells in the six-well plate were lysed using RIPA lysis buffer and protease inhibitor (PMSF) to extract total protein. The lysed cells were centrifuged at 14,000 rpm for 15 min and the supernatant containing the total protein was quantified by the BCA protein assay kit (Beyotime, Shanghai, China). The 30 µg protein was used for 12% SDS-PAGE electrophoresis to separate the protein, and then the protein was transferred to the PVDF membrane. After blocking with 5% skim milk for 1 h, the membrane was incubated with the primary antibody at 4 °C overnight. After washing with TBST buffer, the second antibody coupled with horseradish peroxidase was added to the membrane and incubated for 40 min. The protein bands were displayed using ECL reagents and analyzed using ImageJ software. The antibodies were as followed: β-actin (Santa Cruz Biotechnology, 1:1000), HIF-1α (Cell Signaling Technology, 1:1000).

Short Interfering RNA (siRNA) Transfection

Li-7 cells were transiently transfected with target-specific siRNA or negative control siRNA (siNC). All individual siRNAs were designed and synthesized by Sangon Biotech. The cells were cultured in six-well plates until they reached 60–70% confluence and then transfected using RNA TransMate reagent (Sangon Biotech). Cells were harvested 48 h post-transfection. The sequence information of siRNA is shown in Table 2.

Table 2 The Sequence Information of siRNA

Flow CytoMetry

Apoptosis was assessed using the Annexin V-APC/DAPI Apoptosis Kit (Elabscience^®, Wuhan, China). The cell quantity and culture conditions are as described in Cell Culture. Harvest the cells and centrifuge at 300 ×g for 5 min. Remove the supernatant, wash the cells once with PBS, and centrifuge again to discard the wash buffer. Resuspend the cells in 100 μL of diluted 1× Annexin V Binding Buffer. Add 2.5 μL of Annexin V-APC Reagent and 2.5 μL of DAPI Reagent (25 μg/mL). Mix thoroughly and incubate at room temperature in the dark for 15 min. Finally, add 400 μL of diluted 1× Annexin V Binding Buffer, mix gently, and analyze the samples using flow cytometry.

Statistical Analysis

All statistical data were analyzed using R language (version 3.6.0). Continuous variables such as gene expression, immune scores, and pathway enrichment levels were compared using the Wilcoxon rank-sum test. Differences in categorical clinical characteristics between groups were evaluated using the chi-square test. Spearman correlation analysis was employed to assess associations between risk scores and immune infiltration or pathway activity. RT-qPCR and flow cytometry data are presented as mean ± standard deviation, and comparisons among multiple groups were conducted using one-way analysis of variance (ANOVA). All tests were two-sided, and a p < 0.05 was considered statistically significant.

Results

Identification of Prognostic Hypoxia- and Anoikis-Related lncRNAs and Classification of HCC Molecular Subtypes

To explore the role of hypoxia- and anoikis-related lncRNAs in HCC, we integrated data from the GSE103581 and GSE188608 datasets, identifying 154 lncRNAs significantly associated with overall survival in the TCGA-LIHC cohort (p < 0.05; Supplementary Table 1). Among them, 61 lncRNAs were differentially expressed between tumor and adjacent normal tissues (Supplementary Figure 1A), and 49 were further validated to be prognostically relevant (lncRNA_cox.csv). The intersection of these datasets yielded 25 lncRNAs (Supplementary Figure 1B), among which LINC01018 and LINC01554 were more highly expressed in normal tissues, while the remaining lncRNAs were upregulated in tumor samples (Supplementary Figure 1C).

Based on the expression profiles of these 25 lncRNAs, consensus clustering analysis was performed using the TCGA-LIHC dataset. Two robust molecular subtypes, C1 and C2, were identified (Figure 2A and B). Survival analysis revealed a significantly worse prognosis in the C1 subtype compared to C2 (Figure 2C). Further characterization using the six established immune subtypes (C1–C6) demonstrated that the majority of HCC samples in both molecular subtypes corresponded to immune subtypes C3 (inflammatory) and C4 (lymphocyte-depleted), with minimal overlap with C5 (immunologically quiet) and C6 (TGF-β dominant) (Figure 2D). Notably, C2 contained a higher proportion of patients with aggressive immune subtypes (C1 and C2), consistent with its poorer immune-associated survival outcomes (Figure 2E). These findings highlight the potential of hypoxia- and anoikis-related lncRNAs not only as prognostic markers but also as classifiers of HCC molecular subtypes with distinct immune landscapes and clinical outcomes.

Figure 2 Molecular subtype construction and prognosis analysis. (A) TCGA-LIHC sample clustering heat map. (B) PCA of TCGA molecular subtypes. (C) Survival analysis between TCGA subtypes. (D) Comparison of the distribution of immune subtypes between different molecular subtypes. (E) Survival curve of immune subtypes.

Integrated Genomic and Immunological Characterization of C1 and C2 Subtypes Reveals Distinct Tumor Biology and Immunotherapy Responses

To further elucidate the biological differences between the C1 and C2 subtypes, we investigated their genomic alterations, somatic mutations, immune microenvironment profiles, and pathway enrichment.²³ Genomic instability was more pronounced in the C1 subtype, which exhibited significantly higher levels of fraction genome altered, number of segments, and homologous recombination deficiency scores (Figure 3A). Fisher’s exact test identified subtype-specific somatic mutations (p < 0.01), revealing that C1 had higher mutation frequencies in TP53, DMD, TG, and GREB1, whereas C2 was enriched for mutations in BIRC6, DOCK8, HERC1, IL6ST, CREBBP, and OR2J3 (Figure 3B and C).

Figure 3 Genomic characteristics and somatic mutations among different subtypes. (A) Genome feature score between C1 and C2 subtypes. (B and C) Forest map and waterfall map of differential mutation genes between C1 and C2 subtypes. Notes: (C) X-axis shows gene names. Each cell shows mutation frequency (%), with colors or symbols representing mutation types.

We next examined the immune landscape of these subtypes. ESTIMATE analysis showed that the C1 subtype had elevated stromal and immune scores, indicating increased immune and matrix component infiltration (Figure 4A). CIBERSORT analysis revealed that C1 harbored higher proportions of immunosuppressive cells, including regulatory T cells (Tregs), M0 macrophages, and memory B cells (Figure 4B). In contrast, single-sample GSEA (ssGSEA) demonstrated overall enhanced immune activation in C1, including increased infiltration of CD4+ and CD8+ T cells, B cells, NK cells, dendritic cells, and macrophages. Despite this heightened immune cell presence, the elevated myeloid-derived suppressor cell (MDSC) score in C1 suggests a coexisting immunosuppressive milieu, potentially contributing to immune evasion. Meanwhile, C2 showed modest immune activity with relatively higher scores for activated dendritic cells (Figure 4C). Integrative comparison with immune-related genomic signatures reported in HCC literature indicated that the C1 subtype scored significantly higher in proliferation, TGF-β response, and aneuploidy, supporting a more aggressive and genomically unstable phenotype (Figure 4D). Immunotherapy sensitivity prediction revealed higher Immunophenoscore (IPS) and lower TIDE scores in the C2 subtype, suggesting greater potential responsiveness to immune checkpoint blockade in these patients (Figure 4D). Finally, we compared the differences in activation pathways between C1 and C2 subtypes. GSEA pathway analysis showed that C1 was enriched in oncogenic and EMT-related pathways, including E2F targets, G2M checkpoint, and epithelial-mesenchymal transition, while C2 was associated with metabolic pathways, particularly bile acid metabolism (Figure 4E).

Figure 4 Analysis of immune microenvironment of two subtypes. (A) ESTIMATE immune score difference between subtypes. (B) CIBERSORT immune infiltration difference between subtypes. (C) 28 immune score differences between subtypes. (D) Proliferation, TGF-beta Response, Aneuploidy score, and immunotherapy sensitivity comparison between subtypes. (E) Differences in pathway activity between subtypes. Notes: *p < 0.05, **p < 0.01, ***p < 0.001, ****p < 0.0001.

Construction and Validation of a Prognostic 9-lncRNA Risk Model

A total of 61 differentially expressed lncRNAs were identified between the C1 and C2 subtypes (Figure 5A). These candidates were first subjected to univariate Cox regression to screen for prognosis-related genes, followed by LASSO Cox regression to reduce overfitting and refine the model (Figure 5B and C). Subsequently, stepwise multivariate Cox regression further narrowed the list, and nine lncRNAs were ultimately identified as independent prognostic factors: LINC01554, LINC01134, LINC00661, LINC01096, MIAT, NBAT1, PICSAR, FIRRE, and LINC01139 (Figure 5D). The final risk model was constructed based on their expression and corresponding coefficients as follows: Risk score = (−0.044 * LINC01554) + (0.168 * LINC01134) + (0.053 * LINC00661) + (0.056 * LINC01096) + (−0.258 * MIAT) + (0.067 * NBAT1) + (0.074 * PICSAR) + (0.093 * FIRRE) + (0.028 * LINC01139).

Figure 5 Nine lncRNAs were identified as key genes affecting prognosis. (A) Differential lncRNA identification between C1 and C2 subtypes in TCGA. (B) Differential lncRNA prognostic forest map. (C) LASSO narrows the gene range. (D) Multi-factor forest map of characteristic genes. Note: The volcano map threshold is adj.p <0.05 and |log2FC|> 1.

Based on this formula, risk scores were calculated for each patient, and individuals were stratified into high- and low-risk groups. Kaplan-Meier survival analysis revealed that patients in the high-risk group had significantly worse overall survival than those in the low-risk group (Figure 6A). The model also showed strong predictive accuracy, with a high area under the ROC curve (AUC) (Figure 6B). Expression profiling demonstrated that LINC01554 and MIAT were predominantly expressed in the low-risk group, whereas the other seven lncRNAs were significantly upregulated in the high-risk group (Figure 6C). The prognostic value of this model was further validated in the independent GSE43619 cohort, with similar survival stratification and predictive performance (Figure 6D–F).

Figure 6 A prognostic risk model was constructed based on 9-lncRNA. (A–C) ROC curve of risk model, KM survival curve and heat map of 9-lncRNA expression between risk groups in TCGA cohort. (D–F) ROC curve of risk model, KM survival curve and 9-lncRNA expression heat map between risk groups in GSE43619 cohort. Notes: (A, D) The X-axis represents the follow-up time (years), and the Y-axis indicates overall survival probability.

Multi-Dimensional Evaluation of the 9-lncRNA Risk Model: Prognostic Value, Immune Infiltration, and Drug Response

To evaluate the clinical relevance of the 9-lncRNA-based risk score, we compared the clinicopathological features between high- and low-risk groups in the TCGA cohort. As tumor grade and AJCC stage increased, the corresponding risk score also significantly increased, indicating a strong association between molecular risk and disease severity (Figure 7A). Univariate and multivariate Cox regression analyses identified both RiskScore and AJCC stage as independent prognostic factors for overall survival (Figure 7B and C). A combined nomogram integrating RiskScore and AJCC stage demonstrated that RiskScore had the greatest impact on survival prediction (Figure 7D). The calibration curve showed strong agreement between predicted and observed survival at 1, 3, and 5 years (Figure 7E), and decision curve analysis (DCA) confirmed that the nomogram and RiskScore provided greater net clinical benefit than traditional clinical indicators (Figure 7F).

Figure 7 RiskScore combined with clinicopathological features to improve prognostic model and survival prediction. (A) Riskscore difference between clinical features in TCGA. (B and C) Riskscore and clinical characteristics of single factor and multivariate results. (D) Riskscore combined with AJCC Stage to establish a nomogram. (E and F) Calibration and Decision Curves for Nomogram.

To explore immune landscape differences between risk groups, we used ESTIMATE and found that the low-risk group had significantly higher StromalScore, ImmuneScore, and ESTIMATEScore, along with lower tumor purity, suggesting a more active immune microenvironment (Figure 8A and B). Further correlation analysis using CIBERSORT indicated that RiskScore was negatively associated with CD8⁺ T cells and M1 macrophages, but positively correlated with immunosuppressive cells such as Tregs and M0 macrophages (Figure 8C). Moreover, the low-risk group exhibited higher Immunophenoscore (IPS) and lower Tumor Immune Dysfunction and Exclusion (TIDE) scores, suggesting a greater potential for response to immunotherapy (Figure 8D and E). RiskScore also showed a significant correlation with key immune-related signatures, including IFN-γ response, TGF-β response, and aneuploidy score, underscoring its impact on the tumor immune microenvironment (Figure 8F).

Figure 8 Difference analysis of tumor microenvironment in TCGA risk group. (A) ESTIMATE score between TCGA risk groups. (B) Tumor purity difference between TCGA risk groups. (C) Correlation between Riskscore and CIBERSOER immune score. (D and E) Comparison of immunotherapy sensitivity between TCGA risk groups. (F) Correlation analysis between Riskscore and IFN-gamma Response, TGF-beta Response, Aneuploidy score. Notes: *p < 0.05, **p < 0.01, ***p < 0.001.

To assess potential chemotherapeutic responsiveness, we predicted drug sensitivity across risk groups using pRRophetic. Notably, BI-2536, GNF-2, WH-4-023, Vinorelbine, and A-443654 were predicted to be more effective in the high-risk group, while Roscovitine, HG-6-64-1, KIN001-135, Phenformin, and DMOG were more suitable for the low-risk group (Figure 9A). Finally, pathway analysis using ssGSEA revealed that RiskScore positively correlated with proliferation-related pathways (eg, E2F targets, G2M checkpoint), and negatively correlated with metabolism-related pathways (eg, bile acid metabolism, fatty acid metabolism) (Figure 9B). These findings suggest that the 9-lncRNA RiskScore not only reflects clinical aggressiveness and immune evasion, but also informs therapeutic stratification and targeted treatment decisions.

Figure 9 Drug sensitivity and functional enrichment analysis in the prognostic model. (A) Drug sensitivity difference between risk groups. (B) Riskscore and differential pathway correlation.

The Expression of Five lncRNAs Was Verified by RT-qPCR and Western Blotting

In order to verify the expression of five lncRNAs in the model, the liver cancer cell line Li-7 was inoculated into an ultra-low adsorption culture plate and cultured under hypoxia conditions for 24 hours to establish a hypoxia-anoikis model (Figure 10A). The expression of LINC01554, FIRRE, LINC01139, LINC01134 and NBAT1 was detected by RT-qPCR. The results showed that the expression of LINC01554 decreased, while the expression of FIRRE, LINC01139, LINC01134 and NBAT1 was lower (Figure 10B). Subsequently, siRNA was employed to knock down the expression of LINC01554 and LINC01139 in Li-7 cells, with apoptosis evaluated under a hypoxia-anoikis model using flow cytometry. Compared to the control group, the expression levels of LINC01554 and LINC01139 were significantly reduced (Figure 10C). Notably, the proportion of apoptotic cells was decreased in the si-LINC01554 group and increased in the si-LINC01139 group relative to the si-NC group (Figure 10D).

Figure 10 Western blotting and RT-qPCR were used to verify the LncRNA in the cell hypoxia and anoikis model. (A) Hypoxia of liver cancer cell line Li-7 was verified by Western blotting. (B) The relative expression of LINC01554, FIRRE, LINC01139, LINC01134 and NBAT1 mRNA. (C)The LINC01554 and LINC01139 interference efficiency in Li-7 cells was determined by RT-qPCR. (D) The percentage of apoptotic cells in si-LINC01554 and si-LINC01139 was determined by flow cytometry. The experimental data were expressed as the mean ± SD of the three independent experiments, and the asterisks indicated p values (** p < 0.01,*** p < 0.001,**** p < 0.0001).

Discussion

HCC is one of the leading causes of cancer-related deaths globally, with metastasis being a major contributor to patient mortality.²⁴ Due to the high rates of recurrence and metastasis, the prognosis for HCC patients after chemotherapy or drug treatment remains poor.²⁵ While some biomarkers assist in decision-making and guiding HCC treatment, they are still limited.²⁶ Alpha-fetoprotein (AFP) is an important diagnostic biomarker for HCC. However, over 30% of HCC patients exhibit AFP negativity, highlighting the critical need for new biomarkers.²⁷ LncRNAs, due to their tissue specificity, stability, and significant roles in gene regulatory networks, offer advantages as therapeutic and predictive biomarkers.²⁸ The lncRNA MIR210HG can promote HCC tumorigenesis and angiogenesis by upregulating the expression of mRNA PFKFB4 and SPAG4, effectively predicting the prognosis of HCC patients. It can provide important clinical references for evaluating patient recurrence and metastasis risks.²⁹ The discovery and application of more lncRNA biomarkers will significantly enhance the prediction and diagnostic capabilities of HCC metastasis, providing new avenues for developing personalized treatment strategies.

Hypoxia and anoikis are common stress factors in the tumor microenvironment that impact tumor progression and metastasis by regulating gene expression and cell signaling pathways. The hypoxia microenvironment induces significant changes in the expression of numerous lncRNAs, impacting the behavior of HCC cells. HABON is transcriptionally activated by HIF-1α under hypoxia conditions to facilitate the transcriptional activation of BNIP3, leading to elevated BNIP3 expression levels and promoting the growth, proliferation, and clone formation of HCC cells under hypoxia conditions.³⁰ Cancer recurrence and metastasis represent a multifaceted process involving various steps and factors, wherein evading anoikis serves as a pivotal stage.³¹ HCC cells thwart anoikis and bolster metastasis through diverse molecular mechanisms, including integrin signaling, oxidative stress, and Epithelial-Mesenchymal Transition (EMT).^32–34 Notably, the collaboration between integrin β4 and the epidermal growth factor receptor (EGFR) enhances HCC resistance to anoikis by activating the FAK-AKT signaling pathway.³⁵ LncRNA plays a crucial role in the regulation of anoikis. For example, studies have shown that the LncRNA FOXD2-AS1/miR7/TERT pathway can enhance the survival rate and anchorage-independent growth of thyroid cancer cells.³⁶ LncRNA HOTAIR plays a crucial role in EMT by regulating the expression and activation of c-Met and its membrane co-localization partner Caveolin-1, as well as membrane organization, thereby helping HCC cells produce anoikis resistance and evade tumor immunity.³⁷ Our data indicate that certain lncRNAs undergo changes under hypoxia and anchorage-independent conditions, potentially serving as prognostic biomarkers for HCC.

In this study, through a comprehensive analysis of hypoxia- and anoikis-related lncRNAs, HCC patients were categorized into two molecular subtypes using cluster analysis. The proportion of subtype C1, characterized by a proliferative phenotype, and C2 immune subtypes exceeded that of subtype C2. HCC was classified into proliferative and non-proliferative subtypes, with the former displaying high proliferation rates, chromosomal instability, and activation of the Akt/mTOR signaling pathway.³⁸ The proliferative subtype correlated with immune subtypes C1 and C3, while C2 was linked to the non-proliferative subtype. Subtype C1 was distinguished by poor differentiation, elevated tumor grade, presence of macrovascular invasion, increased proliferation markers (PLK1, MKI67), and overexpression of stem cell genes (EPCAM and AFP).³⁹ This study revealed that tumor cells of C1 subtype tended to accumulate mutations, showcasing heightened heterogeneity and malignancy, resulting in a poorer patient prognosis. These findings suggest that the C1 subtype exhibits a stronger immune evasive capability and lower sensitivity to immunotherapy, whereas patients with the C2 subtype demonstrate a relatively improved prognosis.

Concerning immunotherapy, tumors are categorized into three types: immune-desert, immune-excluded, and immune-inflamed, determined by the presence and activity of immune cells within the tumor microenvironment.⁴⁰ Immune rejection primarily manifests as an immunosuppressive state, featuring ineffective immune cell infiltration that hinders T cells from reaching the core of the tumor due to various immunosuppressive factors.⁴¹ The immune-inflamed type denotes an active immune response characterized by substantial infiltration of T cells and other immune cells in the tumor, alongside high expression levels of inflammation-related cytokines.⁴² Our risk scoring model, based on nine lncRNAs, further confirmed the prognostic value of these lncRNAs in HCC. We noted that the high-risk group, particularly the C1 subtype, exhibited more immunosuppressive elements in the tumor microenvironment, including increased expression of regulatory T cells (Tregs), inactivated M0 macrophages, and MDSC. This aligns with their lower responsiveness to immunotherapy, suggesting a potentially limited reaction to current immune checkpoint inhibitors (ICI). This corresponds to the characteristics of the “immune-excluded” subtype in HCC immunotyping, where tumors typically exhibit a highly immunosuppressive microenvironment that hinders immune cell infiltration and cytotoxic activity, and express high levels of immunosuppressive molecules such as PD-L1 and CTLA-4.⁴³ Notably, activated CD8+ T and NK cells coexist with immunosuppressive cells, suggesting a possible “immune-exhausted” state that may limit effector function.⁴⁴ This implies that immunosuppression could be a barrier to immunotherapy, highlighting the potential need for combined targeting strategies. Conversely, the low-risk group, primarily the C2 subtype, displayed reduced immunosuppressive factors and heightened immune cell activity, such as activated CD8+ T cells and memory CD4+ T cells, in line with the profiles of “immunoinflammatory” HCC. Immunoinflammatory HCC typically exhibits increased immune activity and enhanced sensitivity to ICI treatment. Consequently, patients with the C2 subtype show a more favorable prognosis and a more positive response to immunotherapy. Conversely, the high-risk group may demonstrate a diminished response to existing immune checkpoint inhibitors due to its specific traits. Potential therapeutic targets include PD-1/PD-L1, CTLA-4, TGF-β, and VEGF pathways, which, when targeted, can alleviate T cell suppression, improve the tumor microenvironment, and boost the anti-tumor immune response.⁴⁵ Different immunophenotypes of HCC display diverse responses to immune checkpoint inhibitors like PD-1/PD-L1 inhibitors, highlighting the need to explore combined treatment strategies to enhance outcomes.⁴⁶ For instance, the combination therapy of atezolizumab (anti-PD-L1) and bevacizumab (anti-VEGF) has received approval as a novel first-line treatment, significantly enhancing survival rates.⁴⁷ LncRNA holds substantial promise in immune combination therapy by regulating immune checkpoints, acting as a predictive biomarker, offering insights into therapeutic efficacy, and serving as a target or tool in combined therapy.^48–50 For example, lncRNA UCA1 augments the anti-tumor effect of PD-1 inhibitors by suppressing miR-204-5p and boosting PD-L1 expression.⁵¹ LncRNA can play a crucial role as a target or tool in collaboration with other treatments. As an illustration, si-PROX1-AS1 interacts with miR-520d to modulate PD-L1, promoting colorectal cancer (CRC) cell growth, spread, and evasion of the immune response.⁵² These lncRNAs contribute to enhancing the effectiveness of immunotherapy and possess significant potential in combined immunotherapy.

In this study, a prognostic model was constructed based on nine hypoxia- and anoikis-related lncRNA (LINC01554, MIAT, FIRRE, LINC01139, LINC01096, PICSAR, LINC01134, NBAT1, LINC00661) genes, which revealed the important role of HCC in prognosis and tumor immunophenotype, as well as the metastasis and progression of HCC, and could be used as a reliable biomarker for predicting the prognosis and immunotherapy response of HCC. This study identifies hypoxia- and anoikis-related lncRNA subtypes and constructs a prognostic model, providing new insight into the molecular classification and treatment stratification of HCC.

Among the nine hypoxia- and anoikis-related lncRNAs, LINC01554 and LINC01139 were selected for focused experimental validation. Our results showed that under hypoxia and anoikis conditions, knockdown of LINC01554 inhibited apoptosis, suggesting its role as a tumor suppressor. In contrast, knockdown of LINC01139 significantly increased apoptosis, indicating that it promotes tumor cell survival. Previous studies have reported that LINC01554 suppresses HCC progression by regulating the miR-148b-3p/EIF4E3 axis, while LINC01139 facilitates tumor development through the miR-30/MYBL2 axis.^53,54 Moreover, LINC01139 is involved in modulating glucose metabolism disturbances, remodeling the tumor microenvironment, and enhancing immunotherapy efficacy.⁵⁵ These lncRNAs may be regulated by the hypoxia-anoikis tumor microenvironment; however, their precise functions in HCC remain to be fully elucidated. The exact upstream regulatory mechanisms and downstream signaling pathways of these lncRNAs require further in-depth functional studies, representing important directions for future research.

Nonetheless, this study has several limitations. Although the prognostic value of our model was validated in both TCGA and GSE43619 cohorts, it has yet to be confirmed in larger, prospective, and multi-center clinical datasets to establish its true clinical utility. Moreover, while RT-qPCR was used to verify lncRNA expression, the precise mechanisms by which these lncRNAs regulate gene expression and cellular behavior remain unclear and require further functional investigation. Although preliminary apoptosis assays under hypoxia–anoikis conditions support their functional relevance, more comprehensive validations—including proliferation, migration, invasion assays, rescue experiments, and exploration of downstream pathways such as PI3K/AKT and EMT—are necessary. Future studies should also integrate advanced techniques like single-cell sequencing and incorporate clinical samples to fully elucidate the roles of these lncRNAs in HCC progression and their potential clinical applications.

Ethical Statement

In accordance with Article 32 of the Ethical Review Measures for Life Sciences and Medical Research Involving Humans (China, 2023), secondary research using fully anonymized data in non-interventional settings is exempt from both ethical review and informed consent requirements. This study did not involve any interaction with human participants, collection of biological samples, or implementation of invasive procedures. Therefore, it meets the current regulatory criteria for exemption from institutional ethical approval and informed consent.

Acknowledgments

Special thanks to Guangxi Key Laboratory of Traditional Chinese Medicine and Preventive Medicine for supporting this study.

Disclosure

There is no conflict of interest in all authors.

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Key stat: 47% of US banking decision-makers say their institutions have already will have fully rolled out generative AI, up from 10% in 2023, said data from EY-Parthenon.

Beyond the chart:

• Over two-thirds (67%) of senior banking executives reported increased investment in genAI over last year, found a March Capgemini survey.
• However, 56% of US debit card holders say human oversight is very important to help resolve disputed transactions and 55% say the same about handling customer service issues, as noted in a June survey from Auriemma Group.

Use this chart: This is the time to move from pilot projects to full deployment. Laggards risk falling behind in customer experience, cost savings, and innovation. Strategy teams should benchmark where they stand against peers and identify quick-win use cases (like chatbots or risk modeling) to accelerate adoption.

Related EMARKETER reports:

Methodology: Data is from the July 2025 EY-Parthenon report titled “GenAI in Retail and Commercial Banking.” 100 US banking employees were surveyed during March 2025. The sample included 50 respondents from retail banks and 50 from commercial banks, all with direct involvement in or knowledge of genAI initiatives. Respondents held roles in client servicing, marketing, onboarding, product strategy, investment, or technology. Titles included C-level executives and heads of departments tied to genAI applications such as ChatGPT, DALL-E, OpenAI, and Microsoft Azure.