4.7 Article

Neisseria species as pathobionts in bronchiectasis

Journal

CELL HOST & MICROBE
Volume 30, Issue 9, Pages 1311-+

Publisher

CELL PRESS
DOI: 10.1016/j.chom.2022.08.005

Keywords

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Funding

  1. Singapore Ministry of Health's National Medical Research Council under its Clinician-Scientist Individual Research Grant (CS-IRG) [MOH-000141]
  2. Singapore Ministry of Health's National Medical Research Council under Clinician Scientist Award (CSA) [MOH000710]
  3. National Natural Science Foundation of China [81900071]
  4. Natural Science Foundation of Guangdong Province of China [2021A1515010004]
  5. Research Initiation Fund for Introduction of Talents from the Shenzhen Institute of Advanced Technology, Chinese Academy of Sciences [Y9G077]
  6. Chief Scientist Office, Scotland [SCAF/17/03]
  7. British Lung Foundation Chair of Respiratory Research
  8. Academic Respiratory Initiative for Pulmonary Health (TARIPH), Lee Kong Chian School of Medicine, NTU Singapore

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Neisseria species have been found to be associated with bronchiectasis microbiome, and they are linked to poor clinical outcomes. Cultivated Neisseria subflava from bronchiectasis patients can cause loss of epithelial integrity and inflammation in primary epithelial cells. Animal models and metabolipidome analysis provide evidence for immunoinflammatory functional gene clusters and pulmonary inflammation caused by Neisseria subflava infection.
Neisseria species are frequently identified in the bronchiectasis microbiome, but they are regarded as respiratory commensals. Using a combination of human cohorts, next-generation sequencing, systems biology, and animal models, we show that bronchiectasis bacteriomes defined by the presence of Neisseria spp. associate with poor clinical outcomes, including exacerbations. Neisseria subflava cultivated from bronchiectasis patients promotes the loss of epithelial integrity and inflammation in primary epithelial cells. In vivo animal models of Neisseria subflava infection and metabolipidome analysis highlight immunoinflammatory functional gene clusters and provide evidence for pulmonary inflammation. The murine metabolipidomic data were validated with human Neisseria-dominant bronchiectasis samples and compared with disease in which Pseudomonas-, an established bronchiectasis pathogen, is dominant. Metagenomic surveillance of Neisseria across various respiratory disorders reveals broader importance, and the assessment of the home environment in bronchiectasis implies potential environmental sources of exposure. Thus, we identify Neisseria species as pathobionts in bronchiectasis, allowing for improved risk stratification in this high-risk group.

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