Publications
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Publications
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[1]
Jonathan Kulwatno,
Jamie Gearhart,
Xiangyu Gong,
Nora Herzog,
Matthew Getzin,
Mihaela Skobe,
and
Kristen L. Mills,
"Growth of tumor emboli within a vessel model reveals dependence on the magnitude of mechanical constraint."
Integrative Biology 13(1):
1-16,
2021
[2] Jonathan Kulwatno, Xiangyu Gong, Rebecca DeVaux, Jason I Herschkowitz, and Kristen L Mills, "An Organotypic Mammary Duct Model Capturing Matrix Mechanics-Dependent Ductal Carcinoma In Situ Progression." Tissue Engineering Part A. 27(7-8): 454-466, 2021
[3] Xiangyu Gong, Jonathan Kulwatno, and K.L. Mills, "Rapid fabrication of collagen bundles mimicking tumor-associated collagen architectures." Acta Biomaterialia 108: 128–141, 2020
[4] Ashok Williams*, James F Nowak*, Rachel Dass, Johnson Samuel, and K.L. Mills, "Towards morphologically relevant extracellular matrix in vitro models: 3D fiber reinforced hydrogels." Front. Physiol. 9: 966, 2018
[5] Xiangyu Gong, and Kristen L. Mills, "Large-scale patterning of single cells and cell clusters in hydrogels." Scientific Reports 8(1): 3849, 2018
[6] Clayson C. Spackman, James F. Nowak, Kristen L. Mills, and Johnson Samuel, "A Cohesive Zone Model for the Stamping Process Encountered During Three-Dimensional Printing of Fiber-Reinforced Soft Composites." J. Manuf. Sci. Eng. 140(1): 4616, 2018
[7] K.L. Mills, R. Kemkemer, S. Rudraraju, and K. Garikipati, "Elastic Free Energy Drives the Shape of Prevascular Solid Tumors." PLOS ONE 9(7): e103245, 2014
[8] C. Moraes, B.C. Kim, X. Zhu, K.L. Mills, A.R. Dixon, M.D. Thouless, and S. Takayama, "Defined topologically-complex protein matrices to manipulate cell shape via three-dimensional fiber-like patters." Lab on a Chip 14(13): 2191–2201, 2014
[9] Rudraraju S., Mills K.L., Kemkemer R., and Garikipati K., "Multiphysics Modeling of Reactions, Mass Transport and Mechanics of Tumor Growth." In: Holzapfel G., Kuhl E. (Eds) Computer Models in Biomechanics. Springer, Dordrecht 2013
[10] K.L. Mills, K. Garikipati, and R. Kemkemer, "Experimental characterization of tumor spheroids for studies of the energetics of tumor growth." International Journal of Materials Research 102(7): 889-895, 2011
[11] K.L. Mills, D. Huh, S. Takayama, and M.D. Thouless, "Instantaneous fabrication of arrays of normally closed, adjustable, and reversible nanochannels by tunnel cracking." Lab on a Chip 10(12): 1627-1630, 2010
[12] H. Narayanan, S. N. Verner, K.L. Mills, R. Kemkemer, and K. Garikipati, "In silico estimates of the free energy rates in growing tumor spheroids." Journal of Physics: Condensed Matter, Special Issue on Cell-Substrate Interactions 22(19): 194122, 2010
[13] T. Uchida*, K.L. Mills*, W. Roh, Y.C. Tung, A.L. Garner, K. Koide, M.D. Thouless, and S. Takayama, "External compression-induced fracture patterning on the surface of polydimethylsiloxane cubes and microspheres." Langmuir 25(5): 3102–3107, 2009
[14] K.L. Mills, X. Zhu, S. Takayama, and M.D. Thouless, "The mechanical properties of a surface-modified layer on polydimethylsiloxane." Journal of Materials Research 23(1): 37–48, 2008
[15] D. Huh, K.L. Mills, X. Zhu, M.A. Burns, M.D. Thouless, and S. Takayama, "Tuneable elastomeric nanochannels for nanofluidic manipulation." Nature Materials 6(6): 424–428, 2007
[16] X. Zhu, K.L. Mills, P. R. Peters, J.H. Bahng, E.H. Liu, J. Shim, K. Naruse, M.E. Csete, M.D. Thouless, and S. Takayama, "Fabrication of reconfigurable protein matrices by cracking." Nature Materials 4(5): 403–406, 2005
© 2015 Kristen Mills. Statements.