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However, detailed understanding of bacterialcellulose hydrolysis is primarily confined to a few model isolates.
2
A powerful replica molding methodology to transfer on-demand functional topographies to the surface of bacterialcellulose nanofiber textures is presented.
3
We successfully fabricated various microchannel structures embedded in the bulk bacterialcellulose hydrogels and retained their integrity after the drying process.
4
Upon bacterial fermentation, the generated bacterialcellulose nanofibers are assembled in a three-dimensional network reproducing the geometric shape imposed by the mold.
5
Moreover, bacterialcellulose nanofibers can be conveniently processed into three-dimensional (3D) intertwined structures and form stable paper devices after simple drying.
6
In this work, we report the influences of grammage and strain rate on the tensile response of bacterialcellulose (BC) nanopaper.