• DocumentCode
    3211697
  • Title

    A dynamic perfusion bioreactor approach for engineering respiratory tissues in-vitro

  • Author

    Poon, Carmen ; Boughton, Philip ; Ruys, Andrew J.

  • Author_Institution
    Sch. of Aerosp., Univ. of Sydney, Sydney, NSW, Australia
  • fYear
    2013
  • fDate
    3-7 July 2013
  • Firstpage
    6224
  • Lastpage
    6227
  • Abstract
    In vitro culture of respiratory tissues poses many challenges due to the intrinsic complexity of the respiratory system. Multiple cellular phenotypes comprise the respiratory epithelium and operate under dynamic, gas-interchanging conditions that should be replicated for near-physiologic cultivation of functional tissues in vitro. A novel biomimetic perfusion bioreactor system has been proposed to reconstitute key functional conditions of the human lung. This portable system consists of several biologically-inspired components: (i) a 3-dimensional (3-D) elastomeric soft tissue scaffold construct, (ii) a mechanical actuator, (iii) a perfusion system and (iv) gaseous exchange capabilities. These integrated components operate synergistically to create a unique, dynamic air-liquid interface (ALI) environment that allows controlled application of physiological and pathological strain while complementing standard cell culture techniques. This system holds potential for engineering 3-D tissues to meet growing demand for a range of applications, from more ethical and efficient pharmaceutical screening to clinical graft transplants.
  • Keywords
    bio-inspired materials; biomedical materials; biomimetics; bioreactors; cellular biophysics; elastomers; lung; physiology; pneumodynamics; tissue engineering; 3-dimensional elastomeric soft tissue scaffold construct; biologically-inspired components; biomimetic perfusion bioreactor system; clinical graft transplants; dynamic air-liquid interface environment; dynamic gas-interchanging conditions; dynamic perfusion bioreactor; functional tissues in vitro; gaseous exchange capabilities; human lung; in vitro culture; in-vitro respiratory tissue engineering; integrated components; key functional conditions; mechanical actuator; multiple cellular phenotypes; near-physiologic cultivation; pathological strain; pharmaceutical screening; physiological strain; portable system; respiratory epithelium; respiratory system; standard cell culture techniques; Computer architecture; Diseases; In vitro; Lungs; Media; Microprocessors; Physiology;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Engineering in Medicine and Biology Society (EMBC), 2013 35th Annual International Conference of the IEEE
  • Conference_Location
    Osaka
  • ISSN
    1557-170X
  • Type

    conf

  • DOI
    10.1109/EMBC.2013.6610975
  • Filename
    6610975