Title :
Macro-to-Micro Interface for the Control of Cellular Organization
Author :
Hui, Elliot E. ; Chun Li ; Agrawal, Ankit ; Bhatia, Sangeeta N.
Author_Institution :
Massachusetts Inst. of Technol., Cambridge, MA, USA
Abstract :
The spatial organization of cellular communities plays a fundamental role in determining intercellular communication and emergent behavior. Few tools, however, exist to modulate tissue organization at the scale of individual cells, particularly in the case of dynamic manipulation. Micromechanical reconfigurable culture achieves dynamic control of tissue organization by culturing adherent cells on microfabricated plates that can be shifted to reorganize the arrangement of the cells. Although biological studies using this approach have been previously reported, this paper focuses on the engineering of the device, including the mechanism for translating manual manipulation to precise microscale position control, fault-tolerant design for manufacture, and the synthetic-to-living interface.
Keywords :
adhesion; bioMEMS; biological techniques; biological tissues; biomechanics; cellular biophysics; microfabrication; adherent cells; cellular organization; dynamic control; dynamic manipulation; fault-tolerant design; intercellular communication; macro-microinterface; microfabricated plates; micromechanical reconfigurable culture; microscale position control; spatial organization; synthetic-living interface; tissue organization; Adhesives; Organizations; Polymers; Silicon; Springs; Substrates; Biological cells; micromechanical devices; tissue engineering;
Journal_Title :
Microelectromechanical Systems, Journal of
DOI :
10.1109/JMEMS.2013.2278813