Gene expression profiling in BEAS-2B cells treated with organic extracts from particulate matter produced by gasoline (E0) or gasoline-ethanol blend (E15)
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PROVIDER: PRJNA750111 | ENA |
REPOSITORIES: ENA
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Project description:The aim of this study was to perform comparative analysis of global gene expression changes in lung BEAS-2B cells in response to treatment with extracts of particulate matter produced by conventional gasoline (E0) or biogasoline (E15) differing in the content of organic compounds, particularly PAHs. To examine the toxicity, we monitored genome-wide gene expression changes in human lung BEAS-2B cells, exposed for 4h and 24h to a subtoxic dose of each PM extract. After 4h exposure, numerous dysregulated genes and processes such as oxidative stress, lipid and steroid metabolism, PPARα signaling and immune response, were found to be common for both extract treatments. Twenty four hour exposure resulted in more distinctive gene expression patterns. Although several common modulated processes indicating the metabolism of PAHs and activation of aryl hydrocarbon receptor (AhR) were identified, E15 specifically dysregulated a variety of other genes and pathways related to cancer promotion and progression, possibly due to the increased PAH content in PM organic extract.
2021-07-28 | GSE180932 | GEO
Project description:Background: In classrooms high concentrations of particulate matter PM10 were measured. It is unknown whether the hazard of indoor particles is similar to that of the better studied outdoor particles. This study therefore analyzed adverse biological effects of classroom in comparison to outdoor PM10. Methods: Samples were taken from six schools during teaching hours. Genome-wide gene expression in human bronchial BEAS-2B epithelial cells was analyzed, and regulated genes were verified by quantitative PCR. Polycyclic aromatic hydrocarbons (PAH), endotoxin, and cat allergen Fel d 1 were analyzed with standard methods. Enhancement of allergic reactivity by PM10 was confirmed with CD63 upregulation in human primary basophils. Acceleration of human blood coagulation was determined with supernatants of PM10-exposed human peripheral blood monocytes. Results: Indoor PM10 induced SERPINB2 (involved in blood coagulation) and inflammatory genes (like CXCL6, CXCL1, IL6, IL8, all p<0.001). Outdoor PM10 induced xenobiotic metabolizing enzymes (CYP1A1, CYP1B1, TIPARP, all p<0.001). The induction of inflammatory genes by indoor PM10 could be explained by endotoxin (indoor 128.5M-BM-142.2EU/mg versus outdoor 13.4M-BM-121.5EU/mg, p<0.001), the induction of CYP by outdoor PAH (indoor 8.3M-BM-14.9ng/mg versus outdoor 16.7M-BM-115.2ng/mg, p<0.01). The induction of SERPINB2 was confirmed by a more rapid human blood coagulation (p<0.05). Indoor PM10 had no effect on the allergic reactivity from human primary basophils, except in cat allergic individuals. This was explained by varying Fel d 1 concentrations in indoor PM10 (p<0.001). Conclusions: Indoor PM10, compared to outdoor PM10, was 6 times higher, had a different composition, and on an equal weight basis induced more inflammatory and allergenic reactions, and accelerated blood coagulation. Outdoor PM10 had significantly lower effects, but induced detoxifying enzymes. Therefore, preliminary interventions for the reduction of classroom PM10 seem reasonable, perhaps by intensified ventilation. For genome-wide gene expression analysis, BEAS-2B cells (passage 41) were incubated with 10M-BM-5g/ml PM10 (school 4 indoor and outdoor) for 4, 10 or 24h, all in triplicate. experiment type : time course
2012-12-21 | E-GEOD-34607 | biostudies-arrayexpress
Project description:The aim of the present study was to characterize a common and unique signalling pathways associated to two seasonal particulate matter (PM) (winter PM2.5 and summer PM10) in human bronchial BEAS-2B cells by mean of a global transcriptomic profiling (including genes and miRNA) and the investigation of selected pathways at protein level.
2016-05-26 | E-MTAB-3630 | biostudies-arrayexpress
Project description:The aim of the present study was to characterize a common and unique signalling pathways associated to two seasonal particulate matter (PM) (winter PM2.5 and summer PM10) in human bronchial BEAS-2B cells by mean of a global transcriptomic profiling (including genes and miRNA) and the investigation of selected pathways at protein level.
2016-05-26 | E-MTAB-3629 | biostudies-arrayexpress
Project description:Background: In classrooms high concentrations of particulate matter PM10 were measured. It is unknown whether the hazard of indoor particles is similar to that of the better studied outdoor particles. This study therefore analyzed adverse biological effects of classroom in comparison to outdoor PM10. Methods: Samples were taken from six schools during teaching hours. Genome-wide gene expression in human bronchial BEAS-2B epithelial cells was analyzed, and regulated genes were verified by quantitative PCR. Polycyclic aromatic hydrocarbons (PAH), endotoxin, and cat allergen Fel d 1 were analyzed with standard methods. Enhancement of allergic reactivity by PM10 was confirmed with CD63 upregulation in human primary basophils. Acceleration of human blood coagulation was determined with supernatants of PM10-exposed human peripheral blood monocytes. Results: Indoor PM10 induced SERPINB2 (involved in blood coagulation) and inflammatory genes (like CXCL6, CXCL1, IL6, IL8, all p<0.001). Outdoor PM10 induced xenobiotic metabolizing enzymes (CYP1A1, CYP1B1, TIPARP, all p<0.001). The induction of inflammatory genes by indoor PM10 could be explained by endotoxin (indoor 128.5±42.2EU/mg versus outdoor 13.4±21.5EU/mg, p<0.001), the induction of CYP by outdoor PAH (indoor 8.3±4.9ng/mg versus outdoor 16.7±15.2ng/mg, p<0.01). The induction of SERPINB2 was confirmed by a more rapid human blood coagulation (p<0.05). Indoor PM10 had no effect on the allergic reactivity from human primary basophils, except in cat allergic individuals. This was explained by varying Fel d 1 concentrations in indoor PM10 (p<0.001). Conclusions: Indoor PM10, compared to outdoor PM10, was 6 times higher, had a different composition, and on an equal weight basis induced more inflammatory and allergenic reactions, and accelerated blood coagulation. Outdoor PM10 had significantly lower effects, but induced detoxifying enzymes. Therefore, preliminary interventions for the reduction of classroom PM10 seem reasonable, perhaps by intensified ventilation.
2012-12-21 | GSE34607 | GEO
Project description:Exposure to PM2.5 affects gene expression of BEAS-2B cells Gene expression microarrays were used to detail changes in the transcriptome upon exposure to PM2.5
2020-10-03 | GSE158954 | GEO
Project description:We report the differential expression of circRNAs between T-BEAS-2B cells (cadmium-transformed BEAS-2B cells) and C-BEAS-2B cells (passage-matched control BEAS-2B cells) by high-throughput sequencing. T-BEAS-2B cells are BEAS-2B cells transformed by cadmium at 2.0 μM for twenty weeks, and C-BEAS-2B cells are their passage-matched control. RNAs were sequenced on Illumina HiSeq Xten platform in triplicates, and expressions of circRNAs were calculated by TPM (transcripts per kilobase of exon model per million mapped reads). Clean data per sample exceeds 10 GB. We find 235 significantly up-regulated circRNAs and 271 significantly down-regulated circRNAs in T-BEAS-2B cells relative to C-BEAS-2B cells. Our work provides clues and evidence for exploring the mechanism of circRNAs in cadmium carcinogenesis.
2024-01-26 | GSE165549 | GEO
Project description:Gene expression data from BEAS-2B cells upon exposure to particulate matter (PM2.5) from biomass combustion
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Project description:Calorie restriction is a major intervention consistently demonstrated to retard aging and delay age-associated diseases. A novel micronutrient blend, a putative calorie restriction mimetic, was developed based on a screening tool we previously described. Whole transcriptomic analysis was examined in brain cortex, skeletal muscle and heart in three groups of mice: old controls (30 months), old + calorie restriction and old + novel micronutrient blend. The micronutrient blend elicited transcriptomic changes in a manner similar to those in the calorie-restricted group and unique from those in the control group. Subgroup analysis revealed that nuclear hormone receptor, proteasome complex and angiotensinogen genes, all of which are known to be directly related to the aging process, were the most affected by the micronutrient blend and by calorie restriction. Thus, these three genes may be considered master regulators of the favorable effects of calorie restriction and of the micronutrient blend. Based on the calorie restriction mimetic effects on transcriptomics, it was hypothesized that the micronutrient blend would promotes longevity and vitality. To test this hypothesis, a functional analysis in C. Elegans was used to examine the effects of the micronutrient blend on longevity and biomarkers of vitality. Results indicate that feeding C. Elegans the micronutrient blend increased longevity as well as vitality. Further studies are required to confirm that the calorie restriction mimicking benefits described here are elicited by the micronutrient blend in humans.
2020-11-05 | E-MTAB-8506 | biostudies-arrayexpress