Preparation, Rheological Behavior, and Redispersibility of Bamboo-Derived Holocellulose Nanofibers

Abstract

With the demand for sustainable preparation of nanocellulose, the extraction of holocellulose nanofibers with surface-coated hemicellulose from various biomass is drawing more and more attention. However, detailed preparation processes and some fundamental properties of holocellulose nanofibers, such as rheological behavior and redispersibility, still need systematic investigation. An in-depth understanding of these processes and properties plays a crucial role in guiding the preparation and subsequent material design of holocellulose nanofibers. Herein, a concise method is reported to prepare bamboo-derived holocellulose nanofibers (BHCNFs) from bamboo residue and has been characterized in detail. To facilitate subsequent application, comprehensive exploration and understanding of the rheological behavior of BHCNF were conducted, along with an investigation into the redispersibility after freeze-drying. The presence of hemicellulose significantly affects the rheological behavior and gives BHCNF a certain redispersibility. To achieve better redispersibility, aerogel powder was prepared via spray freeze-drying, offering new insights into the drying and practical application of BHCNF.

Keywords

bamboo residue / freeze drying / holocellulose nanofiber / redispersibility / rheological behavior

References

[1] B. L. Tardy, J. J. Richardson, L. G. Greca, J. Guo, J. Bras, and O. J. Rojas, “Advancing Bio-Based Materials for Sustainable Solutions to Food Packaging,” Nature Sustainability 6, no. 4 (2023): 360–367.

[2] A. C. Opia, M. K. B. A. Hamid, S. Syahrullail, A. B. A. Rahim, and C. A. N. Johnson, “Biomass as a Potential Source of Sustainable Fuel, Chemical and Tribological Materials—Overview,” Materials Today: Proceedings 39, no. 2 (2021): 922–928.

[3] N. M. Clauser, G. González, C. M. Mendieta, J. Kruyeniski, M. C. Area, and M. E. Vallejos, “Biomass Waste as Sustainable Raw Material for Energy and Fuels,” Sustainability 13, no. 2 (2021): 794.

[4] T. Li, C. Chen, A. H. Brozena, et al., “Developing Fibrillated Cellulose as a Sustainable Technological Material,” Nature 590, no. 7844 (2021): 47–56.

[5] P. Chaowana, “Bamboo: An Alternative Raw Material for Wood and Wood-Based Composites,” Journal of Materials Science Research 2, no. 2 (2013): 90–102.

[6] M. F. Silva, M. E Menis-Henrique, M. H. Felisberto, R. Goldbeck, and M. T. Clerici, “Bamboo as an Eco-Friendly Material for Food and Biotechnology Industries,” Current Opinion in Food Science 33 (2020): 124–130.

[7] M. Yadav and A. Mathur, “Bamboo as a Sustainable Material in the Construction Industry: An Overview,” Materials Today: Proceedings 43, no. 5 (2021): 2872–2876.

[8] J. E. G. van Dam, H. W. Elbersen, and C. M. D. Montaño, Perennial Grasses for Bioenergy Bioproducts (Academic Press, 2018), 175–216.

[9] K. Chaowana, S. Wisadsatorn, and P. Chaowana, “Bamboo as a Sustainable Building Material—Culm Characteristics and Properties,” Sustainability 13, no. 13 (2021): 7376.

[10] C. Chen, Z. Li, R. Mi, et al., “Rapid Processing of Whole Bamboo With Exposed, Aligned Nanofibrils Toward a High-Performance Structural Material,” ACS Nano 14, no. 5 (2020): 5194–5202.

[11] Z. Li, C. Chen, R. Mi, et al., “A Strong, Tough, and Scalable Structural Material From Fast-Growing Bamboo,” Advanced Materials 32, no. 10 (2020): 1906308.

[12] Z. Ba, H. Luo, J. Guan, et al., “Robust Flexural Performance and Fracture Behavior of TiO₂ Decorated Densified Bamboo as Sustainable Structural Materials,” Nature Communications 14, no. 1 (2023): 1234.

[13] Z. Li, C. Chen, H. Xie, et al., “Sustainable High-Strength Macrofibres Extracted From Natural Bamboo,” Nature Sustainability 5, no. 3 (2022): 235–244.

[14] H. Huang, Y. Yu, Y. Qing, X. Zhang, J. Cui, and H. Wang, “Ultralight Industrial Bamboo Residue-Derived Holocellulose Thermal Insulation Aerogels With Hydrophobic and Fire Resistant Properties,” Materials 13, no. 2 (2020): 477.

[15] J. Gong, D. Xia, J. Huang, et al., “Functional Components of Bamboo Shavings and Bamboo Leaf Extracts and Their Antioxidant Activities In Vitro,” Journal of Medicinal Food 18, no. 4 (2015): 453–459.

[16] D. M. Nguyen, A.-C. Grillet, Q.-B. Bui, T. M. H. Diep, and M. Woloszyn, “Building Bio-Insulation Materials Based on Bamboo Powder and Bio-Binders,” Construction and Building Materials 186 (2018): 686–698.

[17] X. Gu, X. Deng, Y. Liu, et al, “Review on Comprehensive Utilization of Bamboo Residues,” Trans CSAE 32, no. 1 (2016): 236–242.

[18] H. Lu, L. Zhang, C. Liu, Z. He, X. Zhou, and Y. Ni, “A Novel Method to Prepare Lignocellulose Nanofibrils Directly From Bamboo Chips,” Cellulose 25 (2018): 7043–7051.

[19] H. Wang, X. Zhang, Z. Jiang, W. Li, and Y. Yu, “A Comparison Study on the Preparation of Nanocellulose Fibrils From Fibers and Parenchymal Cells in Bamboo (Phyllostachys pubescens),” Industrial Crops and Products 71 (2015): 80–88.

[20] J. A. Sirviö, J. Ukkola, and H. Liimatainen, “Direct Sulfation of Cellulose Fibers Using a Reactive Deep Eutectic Solvent to Produce Highly Charged Cellulose Nanofibers,” Cellulose 26 (2019): 2303–2316.

[21] H. Long, J. Gu, J. Jiang, et al., “Mechanically Strong and Biodegradable Holocellulose Films Prepared From Camellia oleifera Shells,” Carbohydrate Polymers 299 (2023): 120189.

[22] S. Qin, Y. Chen, S. Tao, et al., “High Recycling Performance of Holocellulose Paper Made From Sisal Fibers,” Industrial Crops and Products 176 (2022): 114389.

[23] D. H. Li, Z. M. Han, Q. He, et al., “Ultrastrong, Thermally Stable, and Food-Saf. Seaweed-Based Structural Material for Tableware,” Advanced Materials 35, no. 1 (2023): 2208098.

[24] K. J. Nagarajan, N. R. Ramanujam, M. R. Sanjay, et al., “A Comprehensive Review on Cellulose Nanocrystals and Cellulose Nanofibers: Pretreatment, Preparation, and Characterization,” Polymer Composites 42, no. 4 (2021): 1588–1630.

[25] Q. Ding, J. Rao, Z. Lv, et al., “Efficient Preparation of Holocellulose Nanofibers and Their Reinforcement Potential,” Cellulose 29, no. 15 (2022): 8229–8242.

[26] S. Galland, F. Berthold, K. Prakobna, and L. A. Berglund, “Holocellulose Nanofibers of High Molar Mass and Small Diameter for High-Strength Nanopaper,” Biomacromolecules 16, no. 8 (2015): 2427–2435.

[27] X. Yang and L. A. Berglund, “Structural and Ecofriendly Holocellulose Materials From Wood: Microscale Fibers and Nanoscale Fibrils,” Advanced Materials 33, no. 28 (2021): 2001118.

[28] X. Yang, M. S. Reid, P. Olsén, and L. A. Berglund, “Eco-Friendly Cellulose Nanofibrils Designed by Nature: Effects From Preserving Native State,” ACS Nano 14, no. 1 (2019): 724–735.

[29] A. Isogai, T. Saito, and H. Fukuzumi, “TEMPO-Oxidized Cellulose Nanofibers,” Nanoscale 3, no. 1 (2011): 71–85.

[30] O. Nechyporchuk, M. N. Belgacem, and J. Bras, “Production of Cellulose Nanofibrils: A Review of Recent Advances,” Industrial Crops and Products 93 (2016): 2–25.

[31] G. Henriksson, M. Lawoko, M. E. E. Martin, and G. Gellerstedt, “Lignin-Carbohydrate Network in Wood and Pulps: A Determinant for Reactivity,” Holzforschung 61, no. 6 (2007): 668–674.

[32] V. Kumar and P. Verma, “A Critical Review on Environmental Risk and Toxic Hazards of Refractory Pollutants Discharged in Chlorolignin Waste of Pulp and Paper Mills and Their Remediation Approaches for Environmental Safety,” Environmental Research 236, no. 1 (2023): 116728.

[33] J. Li, C. Chen, J. Y. Zhu, A. J. Ragauskas, and L. Hu, “In Situ Wood Delignification Toward Sustainable Applications,” Accounts of Materials Research 2, no. 8 (2021): 606–620.

[34] M. C. Li, Q. Wu, R. J. Moon, M. A. Hubbe, and M. J. Bortner, “Rheological Aspects of Cellulose Nanomaterials: Governing Factors and Emerging Applications,” Advanced Materials 33, no. 21 (2021): 2006052.

[35] C.-H. Yin, H.-B. Yang, Z.-M. Han, et al., “Multiscale Cellulose-Based Fireproof and Thermal Insulation Gel Materials With Water-Regulated Forms,” Nano Research 16, no. 2 (2023): 3379–3386.

[36] B. Nazari, V. Kumar, D. W. Bousfield, and M. Toivakka, “Rheology of Cellulose Nanofibers Suspensions: Boundary Driven Flow,” Journal of Rheology 60, no. 6 (2016): 1151–1159.

[37] M.-C. Li, Q. Wu, K. Song, S. Lee, Y. Qing, and Y. Wu, “Cellulose Nanoparticles: Structure–Morphology–Rheology Relationships,” ACS Sustainable Chemistry & Engineering 3, no. 5 (2015): 821–832.

[38] K. Hyun, S. H. Kim, K. H. Ahn, and S. J. Lee, “Large Amplitude Oscillatory Shear as a Way to Classify the Complex Fluids,” Journal of Non-Newtonian Fluid Mechanics 107, no. 1–3 (2002): 51–65.

[39] G. J. Donley, P. K. Singh, A. Shetty, and S. A. Rogers, “Elucidating the G″ Overshoot in Soft Materials With a Yield Transition via a Time-Resolved Experimental Strain Decomposition,” Proceedings of the National Academy of Sciences 117, no. 36 (2020): 21945–21952.

[40] M. Pääkkö, M. Ankerfors, H. Kosonen, et al., “Enzymatic Hydrolysis Combined With Mechanical Shearing and High-Pressure Homogenization for Nanoscale Cellulose Fibrils and Strong Gels,” Biomacromolecules 8, no. 6 (2007): 1934–1941.

[41] A. Celzard, V. Fierro, and R. Kerekes, “Flocculation of Cellulose Fibres: New Comparison of Crowding Factor With Percolation and Effective-Medium Theories,” Cellulose 16 (2009): 983–987.

[42] L. Geng, N. Mittal, C. Zhan, et al., “Understanding the Mechanistic Behavior of Highly Charged Cellulose Nanofibers in Aqueous Systems,” Macromolecules 51, no. 4 (2018): 1498–1506.

[43] R. Wang, T. Rosen, C. Zhan, et al., “Morphology and Flow Behavior of Cellulose Nanofibers Dispersed in Glycols,” Macromolecules 52, no. 15 (2019): 5499–5509.

[44] J. Gu and Y. L. Hsieh, “Surface and Structure Characteristics, Self-Assembling, and Solvent Compatibility of Holocellulose Nanofibrils,” ACS Applied Materials & Interfaces 7, no. 7 (2015): 4192–4201.

[45] K. B. Anoop, S. Kabelac, T. Sundararajan, and S. K. Das, “Rheological and Flow Characteristics of Nanofluids: Influence of Electroviscous Effects and Particle Agglomeration,” Journal of Applied Physics 106, no. 3 (2009): 034909.

[46] M. M. Rueda, M. C. Auscher, R. Fulchiron, et al., “Rheology and Applications of Highly Filled Polymers: A Review of Current Understanding,” Progress in Polymer Science 66 (2017): 22–53.

[47] P. Posada, J. Velásquez-Cock, C. Gómez-Hoyos, et al., “Drying and Redispersion of Plant Cellulose Nanofibers for Industrial Applications: A Review,” Cellulose 27 (2020): 10649–10670.

[48] M. Nordenström, T. Kaldéus, J. Erlandsson, T. Pettersson, E. Malmström, and L. Wågberg, “Redispersion Strategies for Dried Cellulose Nanofibrils,” ACS Sustainable Chemistry & Engineering 9, no. 33 (2021): 11003–11010.

[49] Y. Xu, Y. Xu, H. Chen, M. Gao, X. Yue, and Y. Ni, “Redispersion of Dried Plant Nanocellulose: A Review,” Carbohydrate Polymers 294 (2022): 119830.

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