Elda Hegmann

Dr. Elda Hegmann

orcid

Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
13 December 2017 in Soft Matter
Verified
Journal Article
Closed access
PDF file
MPMarianne Estelle Prévôt
Marianne Estelle Prévôt
HAH. Andro
H. Andro
Symone AlexanderSymone Alexander
Symone Alexander
SUSenay Ustunel
Senay Ustunel
CZC. Zhu
C. Zhu
EHElda Hegmann
Elda Hegmann
3D liquid crystal elastomer foams (LCEs) scaffold materials as dynamic substrates for cell culture, going beyond designing only a physical static 3D scaffold.

10 October 2014 in Macromolecular Bioscience
Verified
Journal Article
Closed access
PDF file
ASAnshul Sharma
Anshul Sharma
ANAbdollah Neshat
Abdollah Neshat
CMCory J. Mahnen
Cory J. Mahnen
ANAlek D. Nielsen
Alek D. Nielsen
JSJacob Snyder
Jacob Snyder
EHElda Hegmann
Elda Hegmann

8 December 2015 in ACS Macro Letters
Verified
Journal Article
Closed access
YGYunxiang Gao
Yunxiang Gao
TMTaizo Mori
Taizo Mori
SMSarah Manning
Sarah Manning
YZYu Zhao
Yu Zhao
ANAlek D. Nielsen
Alek D. Nielsen
EHElda Hegmann
Elda Hegmann

3 March 2018 in Materials
Verified
Journal Article
Open access
PDF file
MPMarianne Estelle Prévôt
Marianne Estelle Prévôt
SUSenay Ustunel
Senay Ustunel
EHElda Hegmann
Elda Hegmann
The development of appropriate materials that can make breakthroughs in tissue engineering has long been pursued by the scientific community. Several types of material have been long tested and re-designed for this purpose. At the same time, liquid crystals (LCs) have captivated the scientific community since their discovery in 1888 and soon after were thought to be, in combination with polymers, artificial muscles. Within the past decade liquid crystal elastomers (LCE) have been attracting increasing interest for their use as smart advanced materials for biological applications. Here, we examine how LCEs can potentially be used as dynamic substrates for culturing cells, moving away from the classical two-dimensional cell-culture nature. We also briefly discuss the integration of a few technologies for the preparation of more sophisticated LCE-composite scaffolds for more dynamic biomaterials. The anisotropic properties of LCEs can be used not only to promote cell attachment and the proliferation of cells, but also to promote cell alignment under LCE-stimulated deformation. 3D LCEs are ideal materials for new insights to simulate and study the development of tissues and the complex interplay between cells.

13 February 2019 in Materials Horizons
Verified
Journal Article
Closed access
PDF file
SSSasan Shadpour
Sasan Shadpour
ANAhlam Nemati
Ahlam Nemati
NBNicola Jane Boyd
Nicola Jane Boyd
LLLin Li
Lin Li
MPMarianne Estelle Prévôt
Marianne Estelle Prévôt
Torsten HegmannTorsten Hegmann
Torsten Hegmann
A unique morphology for bent-core liquid crystals forming the B4 phase has been found for a class of tris-biphenyl bent-core liquid crystal molecules with a single chiral side chain in the longer para-side of the molecule. Unlike the parent molecules with two chiral side chains or a chiral side chain in the shorter meta-side, which form helical nano- or microfilament B4 phases, the two derivatives described here form heliconical-layered nanocylinders composed of up to 10 coaxial heliconical layers, which can split or merge, braid, and self-assemble into a variety of modes including feather- or herringbone-type structures, concentric rings, or hollow nest-like superstructures. These multi-level hierarchical self-assembled structures, rivaling muscle fibers, display blue structural color and show immense structural and morphological complexity.

2 November 2016 in Macromolecular Bioscience
Verified
Journal Article
Closed access
PDF file
ASAnshul Sharma
Anshul Sharma
TMTaizo Mori
Taizo Mori
CMCory J. Mahnen
Cory J. Mahnen
HEHeather R. Everson
Heather R. Everson
MLMichelle T. Leslie
Michelle T. Leslie
EHElda Hegmann
Elda Hegmann