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Durable response of lung carcinoma patients to EGFR tyrosine kinase inhibitors is determined by germline polymorphisms in some immune-related genes



Non-small cell lung cancer is a very poor prognosis disease. Molecular analyses have highlighted several genetic alterations which may be targeted by specific therapies. In clinical practice, progression-free survival on EGFR TKI treatment is between 12 and 14 months. However, some patients progress rapidly in less than 6 months, while others remain free of progression for 16 months or even longer during EGFR TKI treatment.


We sequenced tumor exomes from 135 lung cancer patients (79 with EGFR-wildtype (WT), 56 with EGFR-mutant tumors) enrolled in the ALCAPONE trial (genomic analysis of lung cancers by next generation sequencing for personalized treatment).


Some germline polymorphisms were enriched in the EGFR-mutant subset compared to EGFR-WT tumors or to a reference population. However, the most interesting observation was the negative impact of some germline SNPs in immunity-related genes on survival on EGFR TKI treatment. Indeed, the presence of one of three particular SNPs in the HLA-DRB5 gene was associated with a decreased PFS on EGFR TKI. Moreover, some SNPs in the KIR3DL1 and KIR3DL2 genes were linked to a decrease in both progression-free and overall survival of patients with EGFR-mutant tumors.


Our data suggest that SNPs in genes expressed by immune cells may influence the response to targeted treatments, such as EGFR TKIs. This indicates that the impact of these cells may not be limited to modulating the response to immunotherapies. Further studies are needed to determine the exact mechanisms underlying this influence and to identify the associated predictive and prognostic markers that would allow to refine treatments and so improve lung cancer patient outcomes.

Trial registration

NCT02281214: NGS Genome Analysis in Personalization of Lung Cancer Treatment (ALCAPONE).


Lung cancer is one of the most frequent cancers and one of the leading causes of cancer death worldwide. Extensive studies of the mutational landscape in lung carcinoma, particularly in non-small cell lung carcinoma (NSCLC), have revealed the existence of specific alterations, many of which have emerged as therapeutic targets or biomarkers predicting response to treatment over the past decade. The most well-known targetable alterations in NSCLC are mutations in the EGFR gene, ALK fusions, ROS1 fusions, mutations in splicing sites around exon 14 of the MET gene, and—more recently added to the list of actionable variants—the p.(Val600Glu) mutation in the BRAF gene and the p.(Gly12Cys) mutation in the KRAS gene. Alterations in other genes, such as KEAP1, STK11, or TP53, have been described as biomarkers of response to immunotherapy.

Among therapeutics targeting these specific molecular alterations, EGFR tyrosine kinase inhibitors (TKIs) have been in use for nearly 20 years. While third generation EGFR TKIs, like osimertinib, have been approved as firstline treatment for metastatic NSCLC, first- and second-generation EGFR TKIs are still in use. Despite the overall efficacy of these targeted therapies in patients with EGFR-mutant tumors, some patients do not achieve a durable response to EGFR TKI treatment. Some mechanisms of resistance to EGFR TKIs have been described, including the emergence of the p.(Thr790Met) mutation in the EGFR gene, conferring resistance to the first- and second-generation inhibitors, as well as the EGFR p.(Cys797Ser) mutation, which confers resistance to the third-generation TKIs. However, reliable markers of durable treatment response remain elusive. To date, only two predictive markers have been described in the literature: sensitizing mutations in the EGFR gene and CDK4/6 amplification, neither of which indicates a marker of durable treatment response.

Single Nucleotide Polymorphisms (SNPs) are common genetic variations found in all individuals. While most SNPs are neutral and do not affect protein function, some can influence protein activity. For example, SNPs in the DPYD gene have been linked to toxicity to 5-fluorouracil. Genome-wide studies have identified numerous SNPs that appear to be linked to susceptibility to different diseases or disorders.

In this study, we carried out whole-exome sequencing on 135 lung carcinomas with known EGFR mutational status (79 tumors with wild-type EGFR and 56 with EGFR-mutant tumors) to determine whether some variants may impact the durability of response to treatment in patients with EGFR-mutant tumors.


Study design and patients

The patients included in this study were participants in a multicenter, prospective clinical trial, ALCAPONE (NCT02281214) (genomic analysis of lung cancer by next-generation sequencing for personalization of treatment). This trial was initiated in November 2014, and aimed to investigate possible associations between NGS-identified genomic biomarkers and the effectiveness of some treatments in patients with advanced lung cancer. The participants were recruited from among patients treated at the Dijon Cancer Center (Centre Georges-Francois Leclerc), the Dijon University Hospital, or the Besançon University Hospital (France). A total of 165 patients were recruited between November 2014 and August 2018. Patients were considered as eligible if they presented a locally advanced inoperable or metastatic lung cancer. We only included patients with incurable disease. Detailed inclusion and exclusion criteria are available on The clinical data of the population was presented as Supplementary Results.

All patients signed an informed consent to participate in the trial. The trial protocol was approved by an institutional review committee and by the relevant French regional ethical committee (Comité de protection des personnes Est). Of note, the information on race/ethnicity of the study participants was not collected due to legal constraints (collecting such data is forbidden in France). However, based on the location of participating hospitals and the patients’ family names, we can presume that a vast majority of the patients were of Caucasian origins. Therefore, we used the Non-Finnish European (NFE) population (corresponding to Caucasian population) as a reference. In genetics, SNP frequency depends on ethnic origin, and some SNPs are specific to certain races. Hence, using a reference population that corresponds to the studied population is necessary.

DNA isolation

DNA was isolated from formalin-fixed paraffin-embedded (FFPE) tumor tissue using the Maxwell 16 FFPE Plus LEV DNA Purification kit (Promega, Madison, WI, USA) following the manufacturer’s instructions. The tumor cell content was assessed by a pathologist on a hematoxylin-and-eosin-stained slide from the same core biopsy which was used for DNA extraction. Only samples containing more than 20% of tumor cells were included in the molecular analyses. The quantity of the extracted genomic DNA was assessed with a fluorimetric method using a Qubit device (Fisher Scientific, Waltham, MA, USA).

Whole-exome capture and sequencing

The library was prepared from 200ng genomic DNA using the Agilent SureSelect XT reagent kit (AgilentTechnologies, SantaClara, USA) according to the manufacturer’s protocol. The totality of the enriched library was hybridized and captured with the SureSelect All Exon v5 (Agilent Technologies) baits. Following hybridization, the captured libraries were purified according to the manufacturer's recommendations and amplified by polymerase chain reaction (12 cycles). Normalized libraries were pooled and DNA was sequenced on an Illumina NextSeq500 device using 2*151 bp paired-end reads, and then multiplexed. Tumor DNA sequencing generated mean target coverage of 80X.

Exome analysis workflow

Raw DNA sequencing data were aligned to the hg19 genome built using the Burrows-Wheeler Aligner (BWA), version 0.7.15. Duplicates were marked with Picard version 2.5.0. Base quality scores recalibration and variant calling were performed using GATK tools, version 3.6. Single Nucleotide Variations were annotated using the Variant Studio Illumina software. Filters of candidate variants included the coverage depth of 10X or higher and a variant nucleotide allelic fraction in tumor DNA above 5%.

All genomic analyses were performed at the Dijon Cancer Center.

Statistical analysis

To decrease the number of nucleotide alterations to test and decrease the probability of false-positive results, we have applied filters to select variants (SNPs and somatic mutations) present in more than 10% of individuals but in less than 90% of patients. These filters were applied on all groups or subsets on which we performed statistical analyses (full cohort, mutated EGFR patients, WT EGFR patients, PFS, OS…) and only the common variants were kept for the analysis. This step enabled us to select only 461 SNPs for statistical analysis.

Differences between the two groups were assessed using the Chi-Square test for categorial variables and the Student’s t-test for continuous variables. The objective response rate (ORR) was defined as the proportion of patients with a complete response or partial response to treatment according to the Response Evaluation Criteria in Solid Tumors (RECIST). Progression-free survival (PFS) was calculated as the time from the first metastatic treatment initiation to either evidence of progression, or death. Overall survival (OS) was defined as the time from the first metastatic treatment initiation to death. Both survival parameters were censored at the last follow-up timepoint if no event was recorded. The Kaplan–Meier estimator was used to calculate survival proportions. Log-rank tests were performed to assess the difference in survival between the groups. Univariate analyses aiming to determine the possible association of different DNA variants with PFS and OS were performed using Cox proportional hazard regression models in order to calculate hazard ratios (HR) with 95% confidence intervals. All p-values were adjusted for multi-testing by using the Benjamini–Hochberg procedure. All statistical tests were two-sided with p-values below 0.01 considered as indicative of a statistical significance. Statistical analyses were performed with R language v4.1.0 (R Core Team, 2021) and GraphPad Prism software v8.0.2 (GraphPad Software, La Jolla, CA, USA).


Some germline polymorphisms are enriched in EGFR-mutant tumors

It is well known that EGFR mutations are mutually exclusive with some other gene variants in lung cancers, especially those in the KRAS gene. The analysis of all variants detected with whole-exome sequencing confirmed that only EGFR-WT tumors had KRAS mutations, with 17 tumors (21.52%) harboring gain-of-function mutations in this gene. Interestingly, three other genes were also altered only in EGFR-WT tumors: KEAP1 (20 patients; 25.32%), STK11 (16 patients; 20.25%), and UNC80 (11 patients; 13.92%; Supplementary Figure S3A). In the subset of EGFR-mutant tumors, all variants found in these three genes were Single Nucleotide Polymorphisms (SNPs; Supplementary Table S2). These gene variants were present in 43 (54.43%) patients with EGFR-WT tumors. Twenty-seven (34.18%) of them had variants in one gene, 11 (13.92%) had tumor variants in two genes, and 5 (6.33%) in all the three genes (Supplementary Figure S3A).

In contrast, we did not observe any specific variants occurring only in EGFR-mutant tumors. Nevertheless, some variants – classified as SNPs - were enriched in EGFR-mutant tumors compared to EGFR-WT tumors (Supplementary Fig. 3B, Supplementary Table S3). The CHRNA3 c.67_69del variant was significantly more frequent in EGFR-mutant tumors compared to EGFR-WT tumors (p < 0.001). The same association was observed for three other SNPs: COL18A1 c.3378_3386del (p = 0.001), PLBD1 c.74_76del (p < 0.001), and ZFPM1 c.1335_1340del (p < 0.001).

Polymorphisms in genes of the antigen processing and presentation pathway are linked to worse PFS on EGFR-TKI

We then analyzed whether some genetic variants might impact objective response to first-line treatment and progression-free survival of patients. We confirmed that mutations in exon 20 of the EGFR gene were associated with lack of response to treatment and negatively affected PFS (Supplementary Figure S1A). Hence, we excluded the two patients with exon-20 mutations from further analyses. No variant was significantly associated with the rate of objective response to treatment. However, polymorphisms in five genes impacted PFS of patients receiving EGFR TKIs (Fig. 1A). Two SNPs were found in the CTBP2 gene: rs376695472 (c.2036 T > C, p.(Ile679Thr)) and rs945665113 (c.2059C > T, p.(Arg687Trp)), and both of them were associated with a better PFS of patients receiving EGFR TKI treatment (HR = 0.36 [0.19–0.67]; p = 0.0009 and HR = 0.39 [0.22–0.70]; p = 0.0012). Conversely, these SNPs did not affect PFS of patients with EGFR-WT tumors (Fig. 1A). The presence of both CTBP2 variants in the tumor was associated with a median PFS of 20.1 months, the presence of either of the two SNPs was associated with a median PFS of 15.9 months, while the patients lacking both variants had a median PFS of 9.5 months (Fig. 1B).

Fig. 1
figure 1

The impact of genetic variants on progression-free survival (PFS) of lung carcinoma patients with EGFR-mutant (M +) or EGFR-wildtype (WT) tumors. A Forest plot showing the effects of variants with a significant impact on PFS of patients with EGFR M + patients treated with EGFR tyrosine kinase inhibitors (TKIs) compared to PFS of patients with EGFR-WT tumors receiving another firstline treatment. B-E Kaplan–Meier curves for PFS. Patients with EGFR-mutant tumors were stratified according to the number of variants in the CTBP2 gene (B), the absence or presence of at least one variant in the HLA-DRB5 (C), in KIR3DL1 (D), or in the KIR3DL2 gene (E). F Heatmap summarizing the effects of all these variants on PFS of patients with EGFR M + tumors

Seven polymorphisms spread along three other genes: HLA-DRB5, KIR3DL1, and KIR3DL2, were associated with a worse PFS in patients receiving an EGFR TKI treatment. These included the following three variants in the HLA-DRB5 gene: rs1071748 (c.119A > G, p.(Asp40Gly)), rs184278615 (c.160C > T, p.(Arg54Trp)), and rs201469165 (c.163 T > A, p.(Phe55Ile)) (HR = 2.52 [1.24–5.09] p = 0.008, HR = 3.49 [1.58–7.68] p = 0.001, and HR = 2.78 [1.31–5.89] p = 0.005, respectively (Fig. 1A)). Similar to the two polymorphisms in the CTBP2 gene, the negative effect on PFS was observed only for patients with EGFR-mutant tumors. Overall, patients with tumors that did not harbor any of these three variants had better PFS than those with at least one of them (median PFS 14.6 versus 8.1 months; p < 0.001; Fig. 1C). Similarly, three polymorphisms in the KIR3DL1 gene: rs199822561 (c.1277 T > C, p.(Ile426Thr)), rs200821495 (c.1279 T > A, p.(Leu427Met)), and rs72629105 (c.1286C > T, p.(Thr429Met)), were associated with a decreased PFS only in patients with EGFR-mutant tumors treated with an EGFR TKI (HR = 2.79 [1.26–6.14]; p = 0.008; Fig. 1A). The presence of at least one of these three polymorphisms in the tumor decreased the median PFS from 13.6 months to 7.2 months (Fig. 1D). A similar effect was found for the rs973541788 (c.1156C > G, p.(Gln386Glu)) polymorphism in the KIR3DL2 gene: worse PFS for patients with mutant tumors compared to that of patients whose tumors did not harbor this variant (HR = 2.32 [1.27–4.24] p = 0.005) (Fig. 1A). The presence of the SNP decreased the median PFS from 15.2 to 9.7 months (Fig. 1E). The negative impact of all variants except those in the CTBP2 gene on PFS, as well as the positive effect of the latter were consistent with the heatmap representation (Fig. 1F). Another SNP—in the MUC17 gene—was also linked to worse PFS, but this effect was not specific to patients with EGFR-mutant tumors.

Some polymorphisms in immunity-related genes are linked to better OS of patients receiving EGFR-TKI

Next, we wondered whether the positive effect of different SNPs on PFS of patients receiving an EGFR TKI treatment affected their OS as well. We found that among the nine SNPs impacting PFS, only those in the KIR3DL1 and KIR3DL2 genes were significantly associated with a worse OS (Fig. 2A). Indeed, the presence of at least one of the following KIR3DL1 SNPs: rs72629105, rs200821495, or rs199822561, was associated with a worse OS in patients with EGFR-mutant tumors (median OS of 10.6 months versus 32.5 months; p < 0.001; Fig. 2B).

Fig. 2
figure 2

Genetic variants and overall survival (OS) of lung carcinoma patients with EGFR-mutant (M +) or EGFR-wildtype (WT) tumors. A Forest plot showing how variants with a significant impact on PFS affect the OS of patients with EGFR M + tumors treated with EGFR TKIs (in orange). Effects on the OS of patients with EGFR-WT tumors are displayed in blue. B, C Kaplan–Meier curves for PFS. Patients with EGFR-mutant tumors were stratified according to (B) the absence or presence of at least one variant in the KIR3DL1 gene, or (C) the absence or presence of the variant in the KIR3DL2 gene. D Forest plot illustrating the effect of variants with a significant impact on OS for patients with EGFR M + tumors treated with EGFR TKIs (in orange). The effects on the OS of patients with EGFR-WT tumors are displayed in blue. E Heatmap summarizing the effect of all these variants on the OS of patients with EGFR M + tumors

The same association was observed for the rs973541788 variant in the KIR3DL2 gene, with a median patient OS of 18 months if the variant was present in the tumor versus 42.6 months in case of its absence (Fig. 2C). Moreover, we tested whether other variants detected by whole-exome sequencing might influence OS of patients with EGFR-mutant tumors. In addition to the four above-mentioned SNPs impacting both PFS and OS, we found that eleven other variants, mainly in genes encoding proteins involved in antigen processing and presentation, were linked to a worse OS only in the subset of patients with EGFR-mutant tumors (Fig. 2D, Supplementary Table S4). Indeed, it appeared that the frequency of these variants was higher in patients with a poor OS (Fig. 2E).


The use of targeted therapies in lung cancer has revolutionized patient care in the past several years, especially for patients with EGFR-mutant tumors treated with EGFR TKIs. However, despite the specificity of EGFR TKIs, some patients do not experience long-lasting benefits from these treatments. Even with the early administration of the third-generation EGFR TKIs which are now used as the first line of treatment, some patients progress earlier than others. The development of resistance to EGFR TKIs has been thoroughly studied but, to date, no biomarker of response duration has been identified, except the presence of activating mutations in the EGFR gene itself. To address this gap, we conducted a study analyzing tumors from 135 lung cancer patients (including 56 patients with EGFR-mutant tumors and 79 with EGFR-WT tumors) using whole-exome sequencing.

We first confirmed that KRAS mutations were mutually exclusive with EGFR mutations. Moreover, we observed that three other genes were mutated only in EGFR-WT tumors: KEAP1, STK11, and UNC80. Two of these genes: STK11 and KEAP1, are known to impact response to immunotherapy whereas the third one: UNC80, encodes a component of an ion channel complex and has never been found to be directly involved in any cancer-related mechanism [1]. However, the UNC80 protein has been shown to bind Src kinases [2] that do play some role in cancer progression. We did not identify any recurrent somatic variations associated with EGFR mutations. Nonetheless, we observed a significant enrichment of four SNPs: CHRNA3 rs66793222, COL18A1 c.3378_3386del, PLBD1 rs147342083, and ZFPM1 rs149145771, in EGFR-mutant tumors.

The CHRNA3 gene codes for a member of the nicotinic acetylcholine receptor family. Polymorphisms in this gene have been reported to be associated with heavy smoking [3], but also with susceptibility to lung cancer in the Chinese population [4]. We hypothesize that the enrichment of the CHRNA3 rs66793222 variant we observed in patients with EGFR-mutant tumors compared to the reference Non-Finnish European (NFE) population may reflect a possible preventive effect of this SNP on tobacco dependence (people with this SNP are less susceptible to develop nicotine dependence). Indeed, it is well known that EGFR mutations are more frequent in lung tumors in never-smokers, and the lower frequency of rs66793222 in EGFR-WT tumors seems to support this hypothesis.

The second SNP we identified was an in-frame deletion c.3378_3386del in the COL18A1 gene that encodes the alpha chain of type XVIII collagen. Its frequency in patients with EGFR-WT tumors was similar to that in the NFE population. On the contrary, the frequency of this SNP in EGFR-mutant tumors was 12-fold higher than in NFE population, with more than 32% of patients with EGFR-mutant tumors harboring this SNP. While this particular SNP has not been described in the literature, another SNP in the COL18A1 gene, D104N, has been shown to increase the risk of developing osteosarcoma [5] and sporadic breast cancer [6]. Our results suggest that the c.3378_3386del polymorphism might be associated with an increased prevalence of EGFR-mutant lung cancer. However, further studies are needed to confirm this hypothesis.

The two other SNPs enriched in patients with EGFR-mutant tumors were PLBD1 rs147342083 and ZFPM1 rs149145771. PLBD1 codes for a phospholipase expressed in neutrophils, with its exact role being poorly understood. On the other hand, whereas the ZFPM1 gene encodes a transcription factor, FOG1, well known for its role in erythroid and megakaryocytic cell differentiation [7]. We found that the frequencies of both variants in these two genes were very low in EGFR-WT tumors compared to the NFE population, suggesting that these SNPs might protect from EGFR-WT lung cancer.

While the presence of an EGFR mutation in the tumor is a known biomarker of sensitivity to EGFR TKIs, no other marker predicting the duration of response to EGFR TKI treatment has ever been reported in the literature. Therefore, we investigated whether the presence of variants in some other genes found using the exome analysis might influence progression-free survival (PFS) in patients receiving EGFR TKI. We found that polymorphisms in four genes—CTBP2, HLA-DRB5, KIR3DL1, and KIR3DL2—might have an impact. The CTBP2 gene codes for a transcriptional repressor involved in tumorigenesis and cancer progression. Moreover, a high mRNA expression of CTBP2 was linked to a poor prognosis in patients with different cancers, including lung adenocarcinoma [8]. In our study, we focused on nucleotide variations in the CTBP2 gene. It appeared that patients with the CTBP2 reference genotype had a worse PFS than those harboring one SNP in this gene, and those with one SNP fared worse than those with two SNPs in the gene. This suggests that the CTBP2 genotype may impact the activity of the resulting protein, particularly when it is overexpressed in cancer. Further analysis of the Wnt/β-catenin pathway activation, that could be triggered by CTBP2, may provide additional insights into the effect of the CTBP2 genotype on patient survival.

On the contrary, the presence of a SNP in HLA-DRB5, KIR3DL1, and/or KIR3DL2 immune-related genes decreased PFS of patients receiving EGFR TKI. The HLA-DRB5 mRNA expression has previously been associated with a better prognosis in lung adenocarcinoma [9]. In our study, the presence of any of the three aforementioned SNPs was significantly associated with worse PFS in patients receiving EGFR TKIs. This suggests that immunity may play a role in response to EGFR TKIs. This hypothesis is reinforced by our finding that particular KIR3DL1 and KIR3DL2 SNPs may impact the PFS of patients receiving such a treatment. Indeed, as for HLA-DRB5, patients with the reference sequence of KIR3DL1 and KIR3DL2 had a better PFS than those with at least one of the identified SNPs. Interestingly, we observed that patients with the reference sequence of KIR3DL1 or KIR3DL2 had also a better OS than those harboring at least one SNP in both genes. In addition, another gene of the KIR family, KIR2DL4, had a similar impact on survival as KIR3DL1 and KIR3DL2, with better PFS for patients with the reference sequence than those who had at least one SNP in this gene. Of note, even though we detected these SNPs in the tumor exome analysis, they are also present in non-cancer cells, including immune cells. KIR3DL1/2 and KIR2DL4 are killer immunoglobulin-like receptors (KIR), mainly expressed by Natural Killer (NK) cells. They belong to haplotype A, present in about 50% of humans [10], and localized in the telomeric KIR region. It seems that ˗ at least in the South European population ˗ KIR3DL2 and KIR2DL4 are present in 100% of KIR profiles, and KIR3DL1 is present in almost 82% of profiles [11]. KIRs interact with HLA class I molecules. When KIRs detect a self-molecule, NK cells are inhibited, avoiding the destruction of normal cells. When they detect a tumor cell, the interaction between HLA class I molecule with KIR activates NK cells to destroy abnormal cells. EGFR TKIs were shown to increase the expression of HLA class I molecules at the surface of tumor cells [12]. They also increase the tumor-induced chemotaxis of immune cells, which results in an increased tumor infiltration by immune cells, including NK cells [12]. In addition, it was reported that erlotinib treatment of tumors with the p.(Leu858Arg) EGFR-mutation enhances the antigen-presenting capabilities of antigen-presenting cells [13]. Finally, the hypothesis that the involvement of NK cells is important for effective treatment of EGFR-mutant lung adenocarcinomas is supported by the positive impact of autologous NK cell immunotherapy in advanced lung adenocarcinoma, especially in patients with EGFR-mutant tumors [14]. Of note, a phase I/II clinical trial studying the combination of natural killer T cells and gefitinib in the treatment of advanced EGFR-mutant lung cancer started is currently underway [15].


In conclusion, our work shows that SNPs may impact the response to tumor-targeting therapeutics such as tyrosine kinase inhibitors in lung cancer patients, probably by affecting the tumor microenvironment and non-tumor cells, especially immune cells.

Availability of data and materials

Genomic data may be shared upon reasonable request to the corresponding author in accordance with the French law on genomic data.


  1. Bramswig NC, Zaki MS. UNC80 Deficiency. 2017 Sep 21 [updated 2023 May 18]. In: Adam MP, Mirzaa GM, Pagon RA, Wallace SE, Bean LJH, Gripp KW, Amemiya A, editors. GeneReviews® [Internet]. Seattle: University of Washington, Seattle; 1993–2023. PMID: 28933810.

  2. Wang H, Ren D. UNC80 functions as a scaffold for Src kinases in NALCN channel function. Channels (Austin). 2009;3:161–3.

    Article  CAS  PubMed  Google Scholar 

  3. Perez-Morales R, Gonzalez-Zamora A, Gonzalez-Delgado MF, Calleros Rincon EY, Olivas Calderon EH, Martinez-Ramirez OC, Rubio J. CHRNA3 rs1051730 and CHRNA5 rs16969968 polymorphisms are associated with heavy smoking, lung cancer, and chronic obstructive pulmonary disease in a Mexican population. Ann Hum Genet. 2018;82:415–24.

    Article  CAS  PubMed  Google Scholar 

  4. Qu X, Wang K, Dong W, Shen H, Wang Y, Liu Q, Du J. Association between two CHRNA3 variants and susceptibility of lung cancer: a meta-analysis. Sci Rep. 2016;6:20149.

    Article  CAS  PubMed  PubMed Central  Google Scholar 

  5. Guo Z, Zhang T, Wu J, Wang H, Liu X, Tian L. Genetic polymorphisms in COL18A1 influence the development of osteosarcoma. Int J Clin Exp Pathol. 2015;8:11531–6.

    CAS  PubMed  PubMed Central  Google Scholar 

  6. Lourenco GJ, Cardoso-Filho C, Goncales NS, Shinzato JY, Zeferino LC, Nascimento H, Costa FF, Gurgel MS, Lima CS. A high risk of occurrence of sporadic breast cancer in individuals with the 104NN polymorphism of the COL18A1 gene. Breast Cancer Res Treat. 2006;100:335–8.

    Article  CAS  PubMed  Google Scholar 

  7. Mancini E, Sanjuan-Pla A, Luciani L, Moore S, Grover A, Zay A, Rasmussen KD, Luc S, Bilbao D, O’Carroll D, et al. FOG-1 and GATA-1 act sequentially to specify definitive megakaryocytic and erythroid progenitors. EMBO J. 2012;31:351–65.

    Article  CAS  PubMed  Google Scholar 

  8. Li B, Xiang Z, Xiong F, Yan B, Huang Q. C-terminal binding protein-2 is a prognostic marker for lung adenocarcinomas. Medicine (Baltimore). 2020;99:e20076.

    Article  CAS  PubMed  Google Scholar 

  9. Schaafsma E, Fugle CM, Wang X, Cheng C. Pan-cancer association of HLA gene expression with cancer prognosis and immunotherapy efficacy. Br J Cancer. 2021;125:422–32.

    Article  CAS  PubMed  PubMed Central  Google Scholar 

  10. Benson DM Jr, Caligiuri MA. Killer immunoglobulin-like receptors and tumor immunity. Cancer Immunol Res. 2014;2:99–104.

    Article  CAS  PubMed  PubMed Central  Google Scholar 

  11. Cisneros E, Moraru M, Gomez-Lozano N, Muntasell A, Lopez-Botet M, Vilches C. Haplotype-Based Analysis of KIR-Gene Profiles in a South European Population-Distribution of Standard and Variant Haplotypes, and Identification of Novel Recombinant Structures. Front Immunol. 2020;11:440.

    Article  CAS  PubMed  PubMed Central  Google Scholar 

  12. Li F, Lizee G, Hwu P, Du X, Deng L, Talukder A, Katailiha A, Zou Q, Roszik J, Hawke D, Jackson K, Bradley S, Wang Y, Ataullakhanov R, Bagaev A, Kotlov N, Svekolkin V, Miheechev N, Frenkel F, Sonnemann H. The role of EGFR inhibitor (EGFRi) in immune cell infiltration and CD8+ T-cell activation in EGFR mutant lung cancer. Ann Oncol. 2019;30:v2.

    Article  Google Scholar 

  13. Venugopalan A, Lee MJ, Niu G, Medina-Echeverz J, Tomita Y, Lizak MJ, Cultraro CM, Simpson RM, Chen X, Trepel JB, Guha U. EGFR-targeted therapy results in dramatic early lung tumor regression accompanied by imaging response and immune infiltration in EGFR mutant transgenic mouse models. Oncotarget. 2016;7:54137–56.

    Article  PubMed  PubMed Central  Google Scholar 

  14. Hong G, Chen X, Sun X, Zhou M, Liu B, Li Z, Yu Z, Gao W, Liu T. Effect of autologous NK cell immunotherapy on advanced lung adenocarcinoma with EGFR mutations. Precis Clin Med. 2019;2:235–45.

    Article  PubMed  PubMed Central  Google Scholar 

  15. Yu W, Ye F, Yuan X, Ma Y, Mao C, Li X, Li J, Dai C, Qian F, Li J, et al. A phase I/II clinical trial on the efficacy and safety of NKT cells combined with gefitinib for advanced EGFR-mutated non-small-cell lung cancer. BMC Cancer. 2021;21:877.

    Article  CAS  PubMed  PubMed Central  Google Scholar 

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We warmly acknowledge Katarzyna Szymanska for English editing of the manuscript.


The ALCAPONE trial was partly funded by Boehringer Ingelheim.

Author information

Authors and Affiliations



Study design and supervision: RB; Data curation: LD, JN, CGK; Funding acquisition: BC, RB; Investigation: PF, BC, AL, LF, VW, SK, CGK, OA, CC, LM, LA; Result analysis: CR, SC; Result visualization: CR, RB; Manuscript writing: RB, CR.

Corresponding author

Correspondence to Romain Boidot.

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Ethics approval and consent to participate

All patients signed an informed consent to participate in the trial. The trial protocol was approved by an institutional review committee and by the relevant French regional ethical committee (Comité de protection des personnes Est).

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All patients, by giving their consent to participate, have given their consent for publication.

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The authors declare no competing interests.

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Supplementary Information

Additional file 1.

Supplementary Results.

Additional file 2: Supplementary Figure S1.

Progression-free survival (PFS) rates for patients with EGFR-mutant and -wildtype (WT) lung cancer. Patients with EGFR-mutant tumors were stratified by (A) their mutation, and (B) their treatment. Then, patients were stratified according to (C) EGFR status of the tumor, (D) performance status, (E) metastatic sites, (F) sex, and (G) disease stage.

Additional file 3: Supplementary Figure S2.

Progression-free survival (PFS) rates for patients with EGFR-mutant (A) and -wildtype (B) lung cancer by the disease stage at diagnosis.

Additional file 4: Supplementary Figure S3.

Some germline polymorphisms are enriched in EGFR-mutant tumors (A) Heatmap of gene variants whose frequencies differed between EGFR-WT and EGFR-mutant (M+) tumors. (B) Barplots displaying the proportions of SNPs enriched in EGFR-mutant (M+) tumors compared to EGFR-WT tumors. NFE: non-Finnish European population.

Additional file 5: Supplementary Table S1.

Patients and tumors - demographic and clinical characteristics.

Additional file 6: Supplementary Table S2.

An overview of recurrent mutations detected in EGFR-wildtype (WT) lung tumors.

Additional file 7: Supplementary Table S3.

The prevalence of germline polymorphisms (SNPs) significantly enriched in EGFR-mutant tumors compared to that in EGFR-wildtype (WT) tumors and to the reference non-Finnish European population (NFE, corresponds to Caucasian population).

Additional file 8: Supplementary Table S4.

An overview of single nucleotide polymorphisms (SNPs) which correlated with the overall survival of patients with EGFR-mutant tumors treated with an EGFR tyrosine kinase inhibitor.

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Dalens, L., Niogret, J., Richard, C. et al. Durable response of lung carcinoma patients to EGFR tyrosine kinase inhibitors is determined by germline polymorphisms in some immune-related genes. Mol Cancer 22, 120 (2023).

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