A Transcriptomic Method to Determine Airway Immune Dysfunction in T2-High and T2-Low Asthma
Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and networks that sustain this inflammation. Moreover, defects in the airway immune system in patients with asthma without T2 inflammation are n...
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Published in | American journal of respiratory and critical care medicine Vol. 199; no. 4; pp. 465 - 477 |
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Main Authors | , , , , , , , , |
Format | Journal Article |
Language | English |
Published |
United States
American Thoracic Society
15.02.2019
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Abstract | Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and networks that sustain this inflammation. Moreover, defects in the airway immune system in patients with asthma without T2 inflammation are not established.
To determine the gene networks that sustain T2 airway inflammation in T2-high asthma and to explore the gene networks that characterize T2-low asthma.
Network analysis of sputum cell transcriptome expression data from 84 subjects with asthma and 27 healthy control subjects was used to identify immune cell type-enriched networks that underlie asthma subgroups.
Sputum T2 gene expression was characterized by an immune cell network derived from multiple innate immune cells, including eosinophils, mast cells/basophils, and inflammatory dendritic cells. Clustering of subjects within this network stratified subjects into T2-high and T2-low groups, but it also revealed a subgroup of T2-high subjects with uniformly higher expression of the T2 network. These "T2-ultrahigh subjects" were characterized clinically by older age and more severe airflow obstruction and pathologically by a second T2 network derived from T2-skewed, CD11b
/CD103
/IRF4
classical dendritic cells. Subjects with T2-low asthma were differentiated from healthy control subjects by lower expression of a cytotoxic CD8
T-cell network, which was negatively correlated with body mass index and plasma IL-6 concentrations.
Persistent airway T2 inflammation is a complex construct of innate and adaptive immunity gene expression networks that are variable across individuals with asthma and persist despite steroid treatment. Individuals with T2-low asthma exhibit an airway deficiency in cytotoxic T cells associated with obesity-driven inflammation. |
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AbstractList | Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and networks that sustain this inflammation. Moreover, defects in the airway immune system in patients with asthma without T2 inflammation are not established.BACKGROUNDType 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and networks that sustain this inflammation. Moreover, defects in the airway immune system in patients with asthma without T2 inflammation are not established.To determine the gene networks that sustain T2 airway inflammation in T2-high asthma and to explore the gene networks that characterize T2-low asthma.OBJECTIVESTo determine the gene networks that sustain T2 airway inflammation in T2-high asthma and to explore the gene networks that characterize T2-low asthma.Network analysis of sputum cell transcriptome expression data from 84 subjects with asthma and 27 healthy control subjects was used to identify immune cell type-enriched networks that underlie asthma subgroups.METHODSNetwork analysis of sputum cell transcriptome expression data from 84 subjects with asthma and 27 healthy control subjects was used to identify immune cell type-enriched networks that underlie asthma subgroups.Sputum T2 gene expression was characterized by an immune cell network derived from multiple innate immune cells, including eosinophils, mast cells/basophils, and inflammatory dendritic cells. Clustering of subjects within this network stratified subjects into T2-high and T2-low groups, but it also revealed a subgroup of T2-high subjects with uniformly higher expression of the T2 network. These "T2-ultrahigh subjects" were characterized clinically by older age and more severe airflow obstruction and pathologically by a second T2 network derived from T2-skewed, CD11b+/CD103-/IRF4+ classical dendritic cells. Subjects with T2-low asthma were differentiated from healthy control subjects by lower expression of a cytotoxic CD8+ T-cell network, which was negatively correlated with body mass index and plasma IL-6 concentrations.RESULTSSputum T2 gene expression was characterized by an immune cell network derived from multiple innate immune cells, including eosinophils, mast cells/basophils, and inflammatory dendritic cells. Clustering of subjects within this network stratified subjects into T2-high and T2-low groups, but it also revealed a subgroup of T2-high subjects with uniformly higher expression of the T2 network. These "T2-ultrahigh subjects" were characterized clinically by older age and more severe airflow obstruction and pathologically by a second T2 network derived from T2-skewed, CD11b+/CD103-/IRF4+ classical dendritic cells. Subjects with T2-low asthma were differentiated from healthy control subjects by lower expression of a cytotoxic CD8+ T-cell network, which was negatively correlated with body mass index and plasma IL-6 concentrations.Persistent airway T2 inflammation is a complex construct of innate and adaptive immunity gene expression networks that are variable across individuals with asthma and persist despite steroid treatment. Individuals with T2-low asthma exhibit an airway deficiency in cytotoxic T cells associated with obesity-driven inflammation.CONCLUSIONSPersistent airway T2 inflammation is a complex construct of innate and adaptive immunity gene expression networks that are variable across individuals with asthma and persist despite steroid treatment. Individuals with T2-low asthma exhibit an airway deficiency in cytotoxic T cells associated with obesity-driven inflammation. Background: Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and networks that sustain this inflammation. Moreover, defects in the airway immune system in patients with asthma without T2 inflammation are not established. Objectives: To determine the gene networks that sustain T2 airway inflammation in T2-high asthma and to explore the gene networks that characterize T2-low asthma. Methods: Network analysis of sputum cell transcriptome expression data from 84 subjects with asthma and 27 healthy control subjects was used to identify immune cell type-enriched networks that underlie asthma subgroups. Results: Sputum T2 gene expression was characterized by an immune cell network derived from multiple innate immune cells, including eosinophils, mast cells/basophils, and inflammatory dendritic cells. Clustering of subjects within this network stratified subjects into T2-high and T2-low groups, but it also revealed a subgroup of T2-high subjects with uniformly higher expression of the T2 network. These "T2-ultrahigh subjects" were characterized clinically by older age and more severe airflow obstruction and pathologically by a second T2 network derived from T2-skewed, CD11b+/CD1032/IRF4+ classical dendritic cells. Subjects with T2low asthma were differentiated from healthy control subjects by lower expression of a cytotoxic CD81 T-cell network, which was negatively correlated with body mass index and plasma IL-6 concentrations. Conclusions: Persistent airway T2 inflammation is a complex construct of innate and adaptive immunity gene expression networks that are variable across individuals with asthma and persist despite steroid treatment. Individuals with T2-low asthma exhibit an airway deficiency in cytotoxic T cells associated with obesity-driven inflammation. Background: Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and networks that sustain this inflammation. Moreover, defects in the airway immune system in patients with asthma without T2 inflammation are not established. Objectives: To determine the gene networks that sustain T2 airway inflammation in T2-high asthma and to explore the gene networks that characterize T2-low asthma. Methods: Network analysis of sputum cell transcriptome expression data from 84 subjects with asthma and 27 healthy control subjects was used to identify immune cell type–enriched networks that underlie asthma subgroups. Results: Sputum T2 gene expression was characterized by an immune cell network derived from multiple innate immune cells, including eosinophils, mast cells/basophils, and inflammatory dendritic cells. Clustering of subjects within this network stratified subjects into T2-high and T2-low groups, but it also revealed a subgroup of T2-high subjects with uniformly higher expression of the T2 network. These “T2-ultrahigh subjects” were characterized clinically by older age and more severe airflow obstruction and pathologically by a second T2 network derived from T2-skewed, CD11b + /CD103 − /IRF4 + classical dendritic cells. Subjects with T2-low asthma were differentiated from healthy control subjects by lower expression of a cytotoxic CD8 + T-cell network, which was negatively correlated with body mass index and plasma IL-6 concentrations. Conclusions: Persistent airway T2 inflammation is a complex construct of innate and adaptive immunity gene expression networks that are variable across individuals with asthma and persist despite steroid treatment. Individuals with T2-low asthma exhibit an airway deficiency in cytotoxic T cells associated with obesity-driven inflammation. Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and networks that sustain this inflammation. Moreover, defects in the airway immune system in patients with asthma without T2 inflammation are not established. To determine the gene networks that sustain T2 airway inflammation in T2-high asthma and to explore the gene networks that characterize T2-low asthma. Network analysis of sputum cell transcriptome expression data from 84 subjects with asthma and 27 healthy control subjects was used to identify immune cell type-enriched networks that underlie asthma subgroups. Sputum T2 gene expression was characterized by an immune cell network derived from multiple innate immune cells, including eosinophils, mast cells/basophils, and inflammatory dendritic cells. Clustering of subjects within this network stratified subjects into T2-high and T2-low groups, but it also revealed a subgroup of T2-high subjects with uniformly higher expression of the T2 network. These "T2-ultrahigh subjects" were characterized clinically by older age and more severe airflow obstruction and pathologically by a second T2 network derived from T2-skewed, CD11b /CD103 /IRF4 classical dendritic cells. Subjects with T2-low asthma were differentiated from healthy control subjects by lower expression of a cytotoxic CD8 T-cell network, which was negatively correlated with body mass index and plasma IL-6 concentrations. Persistent airway T2 inflammation is a complex construct of innate and adaptive immunity gene expression networks that are variable across individuals with asthma and persist despite steroid treatment. Individuals with T2-low asthma exhibit an airway deficiency in cytotoxic T cells associated with obesity-driven inflammation. |
Author | Peters, Michael C. Rios, Cydney Herrin, Rachelle Woodruff, Prescott G. Fahy, John V. Ringel, Lando O’Connor, Brian Seibold, Max A. Dyjack, Nathan |
Author_xml | – sequence: 1 givenname: Michael C. orcidid: 0000-0003-1854-4447 surname: Peters fullname: Peters, Michael C. organization: Division of Pulmonary and Critical Care Medicine, Department of Medicine, and, Cardiovascular Research Institute, University of California, San Francisco, San Francisco, California – sequence: 2 givenname: Lando surname: Ringel fullname: Ringel, Lando organization: Center for Genes, Environment, and Health and – sequence: 3 givenname: Nathan surname: Dyjack fullname: Dyjack, Nathan organization: Center for Genes, Environment, and Health and – sequence: 4 givenname: Rachelle surname: Herrin fullname: Herrin, Rachelle organization: Center for Genes, Environment, and Health and – sequence: 5 givenname: Prescott G. surname: Woodruff fullname: Woodruff, Prescott G. organization: Division of Pulmonary and Critical Care Medicine, Department of Medicine, and, Cardiovascular Research Institute, University of California, San Francisco, San Francisco, California – sequence: 6 givenname: Cydney surname: Rios fullname: Rios, Cydney organization: Center for Genes, Environment, and Health and – sequence: 7 givenname: Brian surname: O’Connor fullname: O’Connor, Brian organization: Center for Genes, Environment, and Health and – sequence: 8 givenname: John V. surname: Fahy fullname: Fahy, John V. organization: Division of Pulmonary and Critical Care Medicine, Department of Medicine, and, Cardiovascular Research Institute, University of California, San Francisco, San Francisco, California – sequence: 9 givenname: Max A. orcidid: 0000-0002-8685-4263 surname: Seibold fullname: Seibold, Max A. organization: Center for Genes, Environment, and Health and, Department of Pediatrics, National Jewish Health, Denver, Colorado; and, Division of Pulmonary Sciences and Critical Care Medicine, Department of Medicine, University of Colorado – Anschutz Medical Campus, Aurora, Colorado |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/30371106$$D View this record in MEDLINE/PubMed |
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Snippet | Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune cell types and... Background: Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune... Background: Type 2 (T2) inflammation drives airway dysfunction in many patients with asthma; yet, we lack a comprehensive understanding of the airway immune... |
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SubjectTerms | Adult Asthma Asthma - complications Asthma - immunology Asthma - metabolism Biology Case-Control Studies CD8-Positive T-Lymphocytes - immunology CD8-Positive T-Lymphocytes - metabolism Cytokines Cytotoxicity Dendritic cells Dendritic Cells - metabolism Dermatitis Female Gene expression Gene Expression Profiling - methods Gene Expression Regulation Genomes Humans Immunology Inflammation Inflammation - immunology Inflammation - metabolism Lymphocytes Male Metabolism Middle Aged Obesity - complications Obesity - immunology Obesity - metabolism Ontology Original Sputum - immunology |
Title | A Transcriptomic Method to Determine Airway Immune Dysfunction in T2-High and T2-Low Asthma |
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