K. Sinclair
University of Queensland
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Publication
Featured researches published by K. Sinclair.
Respirology | 2013
K. Sinclair; Stephanie T. Yerkovich; D.C. Chambers
Mesenchymal stem cells (MSC) are a population of tissue‐resident adult progenitor cells that were originally identified in bone marrow, but have now been identified in many organs including the lung. Although their precise role in organ function remains incompletely defined, mounting evidence suggests that they are an important component of the parenchymal progenitor cell niche and orchestrate organ homeostasis and repair following injury. In this review, what is known about MSC biology will be outlined with particular emphasis on lung biology, and the therapeutic potential of MSC‐based cell therapy will also be highlighted.
Stem Cells | 2016
K. Sinclair; Stephanie T. Yerkovich; T. Chen; Jonathan L. McQualter; P. Hopkins; Christine A. Wells; D.C. Chambers
Stromal support is critical for lung homeostasis and the maintenance of an effective epithelial barrier. Despite this, previous studies have found a positive association between the number of mesenchymal stromal cells (MSCs) isolated from the alveolar compartment and human lung diseases associated with epithelial dysfunction. We hypothesised that bronchoalveolar lavage derived MSCs (BAL‐MSCs) are dysfunctional and distinct from resident lung tissue MSCs (LT‐MSCs). In this study, we comprehensively interrogated the phenotype and transcriptome of human BAL‐MSCs and LT‐MSCs. We found that MSCs were rarely recoverable from the alveolar space in healthy humans, but could be readily isolated from lung transplant recipients by bronchoalveolar lavage. BAL‐MSCs exhibited a CD90Hi, CD73Hi, CD45Neg, CD105Lo immunophenotype and were bipotent, lacking adipogenic potential. In contrast, MSCs were readily recoverable from healthy human lung tissue and were CD90Hi or Lo, CD73Hi, CD45Neg, CD105Int and had full tri‐lineage potential. Transcriptional profiling of the two populations confirmed their status as bona fide MSCs and revealed a high degree of similarity between each other and the archetypal bone‐marrow MSC. 105 genes were differentially expressed; 76 of which were increased in BAL‐MSCs including genes involved in fibroblast activation, extracellular matrix deposition and tissue remodelling. Finally, we found the fibroblast markers collagen 1A1 and α‐smooth muscle actin were increased in BAL‐MSCs. Our data suggests that in healthy humans, lung MSCs reside within the tissue, but in disease can differentiate to acquire a profibrotic phenotype and migrate from their in‐tissue niche into the alveolar space. Stem Cells 2016;34:2548–2558
Stem Cell Research & Therapy | 2016
K. Sinclair; Stephanie T. Yerkovich; P. Hopkins; D.C. Chambers
Cytotherapy | 2016
K. Sinclair; Stephanie T. Yerkovich; P. Hopkins; D.C. Chambers
Journal of Heart and Lung Transplantation | 2018
B.J. O'Sullivan; P. Hopkins; M. Trotter; A. Fiene; M.E. Tan; K. Sinclair; D.C. Chambers
Journal of Heart and Lung Transplantation | 2018
K. Sinclair; M.E. Tan; T.M. Sladden; P. Hopkins; B.J. O'Sullivan; D.C. Chambers
Respirology | 2016
K. Sinclair; Stephanie T. Yerkovich; P. Hopkins; D.C. Chambers
Archive | 2016
K. Sinclair; Stephanie T. Yerkovich; Peter Hopkins; D.C. Chambers
Journal of Heart and Lung Transplantation | 2015
Stephanie T. Yerkovich; L. Samson; K. Sinclair; M.E. Tan; H. Gallagher; A. Fiene; P. Hopkins; D.C. Chambers
Journal of Heart and Lung Transplantation | 2013
Stephanie T. Yerkovich; A. Fiene; K. Sinclair; M.E. Tan; L. Samson; P. Hopkins; D.C. Chambers