Hiểu về tính chất đối xứng tay phải của nano cellulose và mối quan hệ cấu trúc-tính chất ở mức độ đơn sợi

Godinho, M. H., Canejo, J. P., Pinto, L. F. V., Borges, J. P. & Teixeira, P. I. C. How to mimic the shapes of plant tendrils on the nano and microscale: spirals and helices of electrospun liquid crystalline cellulose derivatives. Soft Matter 5, 2772–2776 (2009).

Gray, D. G. Isolation and handedness of helical coiled cellulosic thickenings from plant petiole tracheary elements. Cellulose 21, 3181–3191 (2014).

Håkansson, K. M. O. et al. Hydrodynamic alignment and assembly of nanofibrils resulting in strong cellulose filaments. Nat. Commun. 5, 4018 (2014).

Kelly, J. A., Giese, M., Shopsowitz, K. E., Hamad, W. Y. & MacLachlan, M. J. The development of chiral nematic mesoporous materials. Acc. Chem. Res. 47, 1088–1096 (2014).

Revol, J. F., Bradford, H., Giasson, J., Marchessault, R. H. & Gray, D. G. Helicoidal self-ordering of cellulose microfibrils in aqueous suspension. Int. J. Biol. Macromol. 14, 170–172 (1992).

Hamedi, M. et al. Nanocellulose aerogels functionalized by rapid layer-by-layer assembly for high charge storage and beyond. Angew. Chem. Int. Ed. 52, 12038–12042 (2013).

Shopsowitz, K. E., Qi, H., Hamad, W. Y. & Maclachlan, M. J. Free-standing mesoporous silica films with tunable chiral nematic structures. Nature 468, 422–425 (2010).

Olsson, R. T. et al. Making flexible magnetic aerogels and stiff magnetic nanopaper using cellulose nanofibrils as templates. Nat. Nanotechnol. 5, 584–588 (2010).

Moon, R. J., Martini, A., Nairn, J., Simonsen, J. & Youngblood, J. Cellulose nanomaterials review: structure, properties and nanocomposites. Chem. Soc. Rev. 40, 3941–3994 (2011).

Nishiyama, Y., Langan, P. & Chanzy, H. Crystal structure and hydrogen-bonding system in cellulose Iβ from synchrotron X-ray and neutron fiber diffraction. J. Am. Chem. Soc. 124, 9074–9082 (2002).

Majoinen, J., Kontturi, E., Ikkala, O. & Gray, D. G. SEM imaging of chiral nematic films cast from cellulose nanocrystal suspensions. Cellulose 19, 1599–1605 (2012).

Kelly, J. A. et al. Evaluation of form birefringence in chiral nematic mesoporous materials. J. Mater. Chem. C 2, 5093–5097 (2014).

Lagerwall, J. P. F. et al. Cellulose nanocrystal-based materials: from liquid crystal self-assembly and glass formation to multifunctional thin films. NPG Asia Mater. 6, e80 (2014).

Saito, T., Uematsu, T., Kimura, S., Enomaea, T. & Isogai, A. Self-aligned integration of native cellulose nanofibrils towards producing diverse bulk materials. Soft Matter 7, 8804–8809 (2011).

Kobayashi, Y., Saito, T. & Isogai, A. Aerogels with 3D ordered nanofiber skeletons of liquid-crystalline nanocellulose derivatives as tough and transparent insulators. Angew. Chem. Int. Ed. 53, 10394–10397 (2014).

Wicklein, B. et al. Thermally insulating and fire-retardant lightweight anisotropic foams based on nanocellulose and graphene oxide. Nat. Nanotechnol. 10, 277–283 (2015).

Beck-Candanedo, S., Roman, M. & Gray, D. G. Effect of reaction conditions on the properties and behavior of wood cellulose nanocrystal suspensions. Biomacromolecules 6, 1048–1054 (2005).

Shinoda, R., Saito, T., Okita, Y. & Isogai, A. Relationship between length and degree of polymerization of TEMPO-oxidized cellulose nanofibrils. Biomacromolecules 13, 842–849 (2012).

Saito, T., Kuramae, R., Wohlert, J., Berglund, L. A. & Isogai, A. An ultrastrong nanofibrillar biomaterial: the strength of single cellulose nanofibrils revealed via sonication-induced fragmentation. Biomacromolecules 14, 248–253 (2013).

Fernandes, A. N. et al. Nanostructure of cellulose microfibrils in spruce wood. Proc. Natl Acad. Sci. USA 108, E1195–E1203 (2011).

Orts, W. J., Godbout, L., Marchessault, R. H. & Revol, J.-F. Enhanced ordering of liquid crystalline suspensions of cellulose microfibrils: a small angle neutron scattering study. Macromolecules 31, 5717–5725 (1998).

Hanley, S., Revol, J., Godbout, L. & Gray, D. Atomic force microscopy and transmission electron microscopy of cellulose from Micrasterias denticulata; evidence for a chiral helical microfibril twist. Cellulose 4, 209–220 (1997).

Khandelwal, M. & Windle, A. Origin of chiral interactions in cellulose supra-molecular microfibrils. Carbohydr. Polym. 106, 128–131 (2014).

Lahiji, R. R. et al. Atomic force microscopy characterization of cellulose nanocrystals. Langmuir 26, 4480–4488 (2010).

Postek, M. T. et al. Development of the metrology and imaging of cellulose nanocrystals. Meas. Sci. Technol. 22, 024005 (2011).

Matthews, J. F. et al. Computer simulation studies of microcrystalline cellulose Iβ. Carbohydr. Res. 341, 138–152 (2006).

Paavilainen, S., Róg, T. & Vattulainen, I. Analysis of twisting of cellulose nanofibrils in atomistic molecular dynamics simulations. J. Phys. Chem. B 115, 3747–3755 (2011).

Tashiro, K. & Kobayashi, M. Theoretical evaluation of three-dimensional elastic constants of native and regenerated celluloses: role of hydrogen bonds. Polymer (Guildf) 32, 1516–1526 (1991).

Lindman, B., Karlström, G. & Stigsson, L. On the mechanism of dissolution of cellulose. J. Mol. Liq. 156, 76–81 (2010).

Klemm, D. et al. Nanocelluloses: a new family of nature-based materials. Angew. Chem. Int. Ed. 50, 5438–5466 (2011).

Siró, I. & Plackett, D. Microfibrillated cellulose and new nanocomposite materials: a review. Cellulose 17, 459–494 (2010).

Salajková, M., Berglund, L. A. & Zhou, Q. Hydrophobic cellulose nanocrystals modified with quaternary ammonium salts. J. Mater. Chem. 22, 19798–19805 (2012).

Usov, I., Adamcik, J. & Mezzenga, R. Polymorphism complexity and handedness inversion in serum albumin amyloid fibrils. ACS Nano 7, 10465–10474 (2013).

Gray, D. G. Chiral nematic ordering of polysaccharides. Carbohydr. Polym. 25, 277–284 (1994).

Belli, S., Dussi, S., Dijkstra, M. & van Roij, R. Density functional theory for chiral nematic liquid crystals. Phys. Rev. E 90, 020503 (2014).

Adamcik, J., Berquand, A. & Mezzenga, R. Single-step direct measurement of amyloid fibrils stiffness by peak force quantitative nanomechanical atomic force microscopy. Appl. Phys. Lett. 98, 193701 (2011).

Adamcik, J. et al. Measurement of intrinsic properties of amyloid fibrils by the peak force QNM method. Nanoscale 4, 4426–4429 (2012).

Ling, S. et al. Modulating materials by orthogonally oriented β-strands: composites of amyloid and silk fibroin fibrils. Adv. Mater. 26, 4569–4574 (2014).

Lamour, G., Yip, C. K., Li, H. & Gsponer, J. High intrinsic mechanical flexibility of mouse prion nanofibrils revealed by measurements of axial and radial Young’s moduli. ACS Nano 8, 3851–3861 (2014).

Jordens, S., Isa, L., Usov, I. & Mezzenga, R. Non-equilibrium nature of two-dimensional isotropic and nematic coexistence in amyloid fibrils at liquid interfaces. Nat. Commun. 4, 1917 (2013).

Schefer, L., Adamcik, J. & Mezzenga, R. Unravelling secondary structure changes on individual anionic polysaccharide chains by atomic force microscopy. Angew. Chem. Int. Ed. 53, 5376–5379 (2014).

Li, C. & Mezzenga, R. Functionalization of multiwalled carbon nanotubes and their pH-responsive hydrogels with amyloid fibrils. Langmuir 28, 10142–10146 (2012).

Usov, I. & Mezzenga, R. FiberApp: an open-source software for tracking and analyzing polymers, filaments, biomacromolecules, and fibrous objects. Macromolecules 48, 1269–1280 (2015).

Nishiyama, Y. Structure and properties of the cellulose microfibril. J. Wood Sci. 55, 241–249 (2009).

Battista, O. Hydrolysis and crystallization of cellulose. Ind. Eng. Chem. 42, 502–507 (1950).

Wickholm, K., Larsson, P. & Iversen, T. Assignment of non-crystalline forms in cellulose I by CP/MAS 13 C NMR spectroscopy. Carbohydr. Res. 312, 123–129 (1998).

Sturcová, A., His, I., Apperley, D. C., Sugiyama, J. & Jarvis, M. C. Structural details of crystalline cellulose from higher plants. Biomacromolecules 5, 1333–1339 (2004).

Newman, R. H. Estimation of the lateral dimensions of cellulose crystallites using 13C NMR signal strengths. Solid State Nucl. Magn. Reson. 15, 21–29 (1999).

McGeoch, C. C. A Guide to Experimental Algorithmics Cambridge University Press (2012).

Usov, I., Adamcik, J. & Mezzenga, R. Polymorphism in bovine serum albumin fibrils: morphology and statistical analysis. Faraday Discuss. 166, 151–162 (2013).

Rubinstein, M. & Colby, R. H. Polymer Physics Oxford University Press (2003).

Doi, M. & Edwards, S. F. The Theory of Polymer Dynamics Oxford University Press (1986).

Rivetti, C., Guthold, M. & Bustamante, C. Scanning force microscopy of DNA deposited onto mica: equilibration versus kinetic trapping studied by statistical polymer chain analysis. J. Mol. Biol. 264, 919–932 (1996).

Smith, J. F., Knowles, T. P. J., Dobson, C. M., Macphee, C. E. & Welland, M. E. Characterization of the nanoscale properties of individual amyloid fibrils. Proc. Natl Acad. Sci. USA. 103, 15806–15811 (2006).

Manning, G. S. Polymer persistence length characterized as a critical length for instability caused by a fluctuating twist. Phys. Rev. A 34, 668–670 (1986).

Usov, I. & Mezzenga, R. Correlation between nanomechanics and polymorphic conformations in amyloid fibrils. ACS Nano 8, 11035–11041 (2014).

Li, Q. & Renneckar, S. Molecularly thin nanoparticles from cellulose: isolation of sub-microfibrillar structures. Cellulose 16, 1025–1032 (2009).

Li, Q. & Renneckar, S. Supramolecular structure characterization of molecularly thin cellulose I nanoparticles. Biomacromolecules 12, 650–659 (2011).

Kroon-Batenburg, L. M. J., Kruiskamp, P. H., Vliegenthart, J. F. G. & Kroon, J. Estimation of the persistence length of polymers by MD simulations on small fragments in solution. application to cellulose. J. Phys. Chem. B 101, 8454–8459 (1997).

Odijk, T. Polyelectrolytes near the rod limit. J. Polym. Sci. Polym. Phys. Ed. 15, 477–483 (1977).

Skolnick, J. & Fixman, M. Electrostatic persistence length of a wormlike polyelectrolyte. Macromolecules 10, 944–948 (1977).

Dobrynin, A. V. & Rubinstein, M. Theory of polyelectrolytes in solutions and at surfaces. Prog. Polym. Sci. 30, 1049–1118 (2005).

Fall, A. B., Lindström, S. B., Sundman, O., Ödberg, L. & Wågberg, L. Colloidal stability of aqueous nanofibrillated cellulose dispersions. Langmuir 27, 11332–11338 (2011).

Montanari, S., Roumani, M., Heux, L. & Vignon, M. R. Topochemistry of carboxylated cellulose nanocrystals resulting from TEMPO-mediated oxidation. Macromolecules 38, 1665–1671 (2005).

Siqueira, G., Tapin-Lingua, S., Bras, J., da Silva Perez, D. & Dufresne, A. Morphological investigation of nanoparticles obtained from combined mechanical shearing, and enzymatic and acid hydrolysis of sisal fibers. Cellulose 17, 1147–1158 (2010).

Hamedi, M. M. et al. Highly conducting, strong nanocomposites based on nanocellulose-assisted aqueous dispersions of single-wall carbon nanotubes. ACS Nano 8, 2467–2476 (2014).

Saito, T. et al. Individualization of nano-sized plant cellulose fibrils by direct surface carboxylation using TEMPO catalyst under neutral conditions. Biomacromolecules 10, 1992–1996 (2009).

Hart, P., Nilsson, N. & Raphael, B. A formal basis for the heuristic determination of minimum cost paths. IEEE Trans. Syst. Sci. Cybern. 4, 100–107 (1968).

Kass, M., Witkin, A. & Terzopoulos, D. Snakes: active contour models. Int. J. Comput. Vis. 1, 321–331 (1988).

Smith, M. B. et al. Segmentation and tracking of cytoskeletal filaments using open active contours. Cytoskeleton (Hoboken) 67, 693–705 (2010).