Literature DB >> 27240620

Polarized Airway Epithelial Models for Immunological Co-Culture Studies.

Dick Papazian1, Peter A Würtzen, Soren W K Hansen.   

Abstract

Epithelial cells line all cavities and surfaces throughout the body and play a substantial role in maintaining tissue homeostasis. Asthma and other atopic diseases are increasing worldwide and allergic disorders are hypothesized to be a consequence of a combination of dysregulation of the epithelial response towards environmental antigens and genetic susceptibility, resulting in inflammation and T cell-derived immune responses. In vivo animal models have long been used to study immune homeostasis of the airways but are limited by species restriction and lack of exposure to a natural environment of both potential allergens and microflora. Limitations of these models prompt a need to develop new human cell-based in vitro models. A variety of co-culture systems for modelling the respiratory epithelium exist and are available to the scientific community. The models have become increasingly sophisticated and specific care needs to be taken with regard to cell types, culture medium and culture models, depending on the aim of the study. Although great strides have been made, there is still a need for further optimization, and optimally also for standardization, in order for in vitro co-culture models to become powerful tools in the discovery of key molecules dictating immunity and/or tolerance, and for understanding the complex interplay that takes place between mucosa, airway epithelium and resident or infiltrating immune cells. This review focuses on current knowledge and the advantages and limitations of the different cell types and culture methods used in co-culture models of the human airways.
© 2016 S. Karger AG, Basel.

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Year:  2016        PMID: 27240620     DOI: 10.1159/000445833

Source DB:  PubMed          Journal:  Int Arch Allergy Immunol        ISSN: 1018-2438            Impact factor:   2.749


  14 in total

1.  Biomimetics of the pulmonary environment in vitro: A microfluidics perspective.

Authors:  Janna Tenenbaum-Katan; Arbel Artzy-Schnirman; Rami Fishler; Netanel Korin; Josué Sznitman
Journal:  Biomicrofluidics       Date:  2018-05-29       Impact factor: 2.800

2.  [Establishment of a culture system for human nasal mucosa organoids with controllable differentiation].

Authors:  K Wang; Y Yu; R Han; X Wang; Y Zhao; H Tang; G Li
Journal:  Nan Fang Yi Ke Da Xue Xue Bao       Date:  2022-06-20

3.  Air-liquid interface cultures of the healthy and diseased human respiratory tract: promises, challenges and future directions.

Authors:  Domizia Baldassi; Bettina Gabold; Olivia Merkel
Journal:  Adv Nanobiomed Res       Date:  2021-05-06

4.  Stability of gene expression by primary bronchial epithelial cells over increasing passage number.

Authors:  Stephen R Reeves; Kaitlyn A Barrow; Maria P White; Lucille M Rich; Maryam Naushab; Jason S Debley
Journal:  BMC Pulm Med       Date:  2018-05-29       Impact factor: 3.317

5.  Development of a Novel ex vivo Nasal Epithelial Cell Model Supporting Colonization With Human Nasal Microbiota.

Authors:  Derald D Charles; James R Fisher; Sarah M Hoskinson; Audrie A Medina-Colorado; Yi C Shen; Mohamad R Chaaban; Steven G Widen; Tonyia D Eaves-Pyles; Carrie A Maxwell; Aaron L Miller; Vsevolod L Popov; Richard B Pyles
Journal:  Front Cell Infect Microbiol       Date:  2019-05-21       Impact factor: 5.293

6.  Optimization of Normal Human Bronchial Epithelial (NHBE) Cell 3D Cultures for in vitro Lung Model Studies.

Authors:  Rachael E Rayner; Patrudu Makena; Gaddamanugu L Prasad; Estelle Cormet-Boyaka
Journal:  Sci Rep       Date:  2019-01-24       Impact factor: 4.379

7.  Equine bronchial fibroblasts enhance proliferation and differentiation of primary equine bronchial epithelial cells co-cultured under air-liquid interface.

Authors:  Vanessa Abs; Jana Bonicelli; Johannes Kacza; Claudia Zizzadoro; Getu Abraham
Journal:  PLoS One       Date:  2019-11-13       Impact factor: 3.240

8.  Genetic incompatibilities and reduced transmission in chickens may limit the evolution of reassortants between H9N2 and panzootic H5N8 clade 2.3.4.4 avian influenza virus showing high virulence for mammals.

Authors:  Ahmed Mostafa; Claudia Blaurock; David Scheibner; Christin Müller; Ulrike Blohm; Alexander Schäfer; Marcel Gischke; Ahmed H Salaheldin; Hanaa Z Nooh; Mohamed A Ali; Angele Breithaupt; Thomas C Mettenleiter; Stephan Pleschka; Elsayed M Abdelwhab
Journal:  Virus Evol       Date:  2020-10-15

Review 9.  Optimizations of In Vitro Mucus and Cell Culture Models to Better Predict In Vivo Gene Transfer in Pathological Lung Respiratory Airways: Cystic Fibrosis as an Example.

Authors:  Rosy Ghanem; Véronique Laurent; Philippe Roquefort; Tanguy Haute; Sophie Ramel; Tony Le Gall; Thierry Aubry; Tristan Montier
Journal:  Pharmaceutics       Date:  2020-12-31       Impact factor: 6.321

10.  A High-Throughput Distal Lung Air-Blood Barrier Model Enabled By Density-Driven Underside Epithelium Seeding.

Authors:  Hannah Viola; Kendra Washington; Cauviya Selva; Jocelyn Grunwell; Rabindra Tirouvanziam; Shuichi Takayama
Journal:  Adv Healthc Mater       Date:  2021-06-26       Impact factor: 11.092

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