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Beilstein J. Nanotechnol. 2026, 17, 239–250, doi:10.3762/bjnano.17.16
Figure 1: Structure of spruce tracheids. SEM images of untreated and delignified spruce (A–E) and 3D models o...
Figure 2: Structure of beech fibers. SEM images of untreated and delignified beech (A–F) and 3D models of del...
Figure 3: Structure of balsa fibers. SEM images of untreated and delignified balsa (A–F) and 3D models of del...
Figure 4: Structure of the Douglas fir tracheids. SEM images of untreated and delignified Douglas fir (A–E) a...
Figure 5: Structure of poplar fibers. SEM images of the untreated and delignified poplar (A–G) and 3D models ...
Figure 6: Fiber and tracheid diameter and wall thickness. Two fiber and tracheid diameters (A) of both untrea...
Beilstein J. Nanotechnol. 2025, 16, 1695–1710, doi:10.3762/bjnano.16.119
Figure 1: Tissue sample extraction from a Pinus jeffreyi cone scale. (A) The position of the cross section al...
Figure 2: Characterization of the scale bending angle as a function of relative humidity and temperature. (A)...
Figure 3: Geometries used for finite element analysis. (A) Bilayer. (B) Trilayer. (C) Trilayer with uniform f...
Figure 4: Results of the sorption measurements and the bending angle characterization. (A) The average moistu...
Figure 5: Results of the FE analysis. Obtained bending of (A) the bilayer, (B) the bilayer with reduced stiff...