Cell Encapsulation in Sub-mm Sized Gel Modules Using Replica Molding

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Cell Encapsulation in Sub-mm Sized Gel Modules Using Replica Molding

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Title: Cell Encapsulation in Sub-mm Sized Gel Modules Using Replica Molding
Author: McGuigan, Alison P.; Butte, Manish; Whitesides, George; Bruzewicz, Derek A.; Glavan, Ana

Note: Order does not necessarily reflect citation order of authors.

Citation: McGuigan, Alison P., Derek A. Bruzewicz, Ana Glavan, Manish Butte, and George M. Whitesides. 2008. Cell Encapsulation in Sub-mm Sized Gel Modules Using Replica Molding. PLoS ONE 3(5): e2258.
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Abstract: For many types of cells, behavior in two-dimensional (2D) culture differs from that in three-dimensional (3D) culture. Among biologists, 2D culture on treated plastic surfaces is currently the most popular method for cell culture. In 3D, no analogous standard method—one that is similarly convenient, flexible, and reproducible—exists. This paper describes a soft-lithographic method to encapsulate cells in 3D gel objects (modules) in a variety of simple shapes (cylinders, crosses, rectangular prisms) with lateral dimensions between 40 and 1000 ?m, cell densities of 105 – 108 cells/cm3, and total volumes between 1×10?7 and 8×10?4 cm3. By varying (i) the initial density of cells at seeding, and (ii) the dimensions of the modules, the number of cells per module ranged from 1 to 2500 cells. Modules were formed from a range of standard biopolymers, including collagen, Matrigel™, and agarose, without the complex equipment often used in encapsulation. The small dimensions of the modules allowed rapid transport of nutrients by diffusion to cells at any location in the module, and therefore allowed generation of modules with cell densities near to those of dense tissues (108 – 109 cells/cm3). This modular method is based on soft lithography and requires little special equipment; the method is therefore accessible, flexible, and well suited to (i) understanding the behavior of cells in 3D environments at high densities of cells, as in dense tissues, and (ii) developing applications in tissue engineering.
Published Version: http://dx.doi.org/10.1371/journal.pone.0002258
Terms of Use: This article is made available under the terms and conditions applicable to Other Posted Material, as set forth at http://nrs.harvard.edu/urn-3:HUL.InstRepos:dash.current.terms-of-use#LAA
Citable link to this page: http://nrs.harvard.edu/urn-3:HUL.InstRepos:2640568

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  • FAS Scholarly Articles [6464]
    Peer reviewed scholarly articles from the Faculty of Arts and Sciences of Harvard University
 
 

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