Stearic Acid-Modified Cellulose Enhanced With Apple Pomace Polyphenols and Water Chestnut Starch Composite Films for Improved Barrier Properties and Fruit Preservation
Ge Yan
School of Light Industry and Engineering, South China University of Technology, Guangzhou, China
Search for more papers by this authorCorresponding Author
Qifeng Chen
School of Light Industry and Engineering, South China University of Technology, Guangzhou, China
Guangdong Xintianli Holdings Co., Ltd, Chaozhou, Guangdong, China
Search for more papers by this authorGe Yan
School of Light Industry and Engineering, South China University of Technology, Guangzhou, China
Search for more papers by this authorCorresponding Author
Qifeng Chen
School of Light Industry and Engineering, South China University of Technology, Guangzhou, China
Guangdong Xintianli Holdings Co., Ltd, Chaozhou, Guangdong, China
Search for more papers by this authorFunding: This work was supported by the Chao'an District Science and Technology Plan Project (Angongke [2025] No. 5), “Development and Application of Recyclable Paper Packaging Materials Based on Modified Acrylic Waterborne Coatings and Efficient PS Printing Technology”, Chaozhou City, Guangdong Province, China.
ABSTRACT
In this study, polyphenols extracted from apple waste were blended with modified nanocellulose and modified microcrystalline cellulose to produce composite films based on water chestnut starch. Thermogravimetric analysis indicated that the addition of polyphenols from apple residue could enhance the heat endurance of the water chestnut starch film. The study findings suggested that the incorporation of M-NCC led to a 24.35% boost in the tensile strength of the finished films, while that with M-MCC increased by 55.17%. The hydrophobic properties were improved due to the introduction of non-polar carbon chains and hydrophobic ester groups, resulting in respective increases in the surface contact angle of 22.66% and 24.94%. The incorporation of polyphenols from apple residue led to a 16.05% increase in the water solubility of the starch film, and the incorporation of M-NCC and M-MCC resulted in a decrease in the water solubility of the composite films by 19.04% and 30.79%, respectively. Moreover, the DPPH free radical scavenging rates of the films containing apple polyphenols (P, PN, and PM) were increased by 164.7%, 163.3%, and 134.7%, demonstrating excellent antioxidant properties. These findings suggested that the combination of apple pomace polyphenols and cellulose nanocrystals offered an optional approach for preparing food packaging films.
Conflicts of Interest
The authors declare no conflicts of interest.
Open Research
Data Availability Statement
The data that support the findings of this study are available from the corresponding author upon reasonable request.
References
- 1N. W. H. Cheetham and L. P. Tao, “Variation in Crystalline Type With Amylose Content in Maize Starch Granules: An X-Ray Powder Diffraction Study,” Carbohydrate Polymers 36 (1998): 277–284.
- 2S. Wang, J. Yu, Q. Zhu, J. Yu, and F. Jin, “Granular Structure and Allomorph Position in C-type Chinese Yam Starch Granule Revealed by SEM, 13C CP/MAS NMR and XRD,” Food Hydrocolloids 23 (2009): 426–433.
- 3J. Cai, C. Cai, J. Man, W. Zhou, and C. Wei, “Structural and Functional Properties of C-Type Starches,” Carbohydrate Polymers 101 (2014): 289–300.
- 4J. Colivet and R. A. Carvalho, “Hydrophilicity and Physicochemical Properties of Chemically Modified Cassava Starch Films,” Industrial Crops and Products 95 (2017): 599–607.
- 5U. Shah, F. Naqash, A. Gani, and F. A. Masoodi, “Art and Science Behind Modified Starch Edible Films and Coatings: A Review,” Comprehensive Reviews in Food Science and Food Safety 15 (2016): 568–580.
- 6L. Ansari, T. M. Ali, and A. Hasnain, “Effect of Chemical Modifications on Morphological and Functional Characteristics of Water-Chestnut Starches and Their Utilization as a Fat-Replacer in Low-Fat Mayonnaise,” Starch-Starke 69 (2017): 1600041.
- 7G. D. Singh, A. S. Bawa, C. S. Riar, and D. C. Saxena, “Influence of Heat-Moisture Treatment and Acid Modifications on Physicochemical, Rheological, Thermal and Morphological Characteristics of Indian Water Chestnut (Trapa natans) Starch and Its Application in Biodegradable Films,” Starch-Starke 61 (2009): 503–513.
- 8C. Liu, H. Yan, S. Liu, and X. Chang, “Influence of Phosphorylation and Acetylation on Structural, Physicochemical and Functional Properties of Chestnut Starch,” Polymers 14 (2022), 172.
- 9Z. Lutfi, A. Nawab, F. Alam, and A. Hasnain, “Morphological, Physicochemical, and Pasting Properties of Modified Water Chestnut (Trapabispinosa) Starch,” International Journal of Food Properties 20 (2017): 1016–1028.
- 10C. K. Reddy, L. Kimi, and S. Haripriya, “Variety Difference in Molecular Structure, Physico-Chemical and Thermal Properties of Starches From Pigmented Rice,” International Journal of Food Engineering 12 (2016): 557–565.
- 11N. Singh, J. Singh, L. Kaur, N. S. Sodhi, and B. S. Gill, “Morphological, Thermal and Rheological Properties of Starches From Different Botanical Sources,” Food Chemistry 81 (2003): 219–231.
- 12S. Sukhija, S. Singh, and C. S. Riar, “Isolation of Starches From Different Tubers and Study of Their Physicochemical, Thermal, Rheological and Morphological Characteristics,” Starch-Starke 68 (2016): 160–168.
- 13X. Wang, C. K. Reddy, and B. Xu, “A Systematic Comparative Study on Morphological, Crystallinity, Pasting, Thermal and Functional Characteristics of Starches Resources Utilized in China,” Food Chemistry 259 (2018): 81–88.
- 14B. Dereje, “Composition, Morphology and Physicochemical Properties of Starches Derived From Indigenous Ethiopian Tuber Crops: A Review,” International Journal of Biological Macromolecules 187 (2021): 911–921.
- 15G. D. Singh, A. S. Bawa, S. Singh, and D. C. Saxena, “Physicochemical, Pasting, Thermal and Morphological Characteristics of Indian Water Chestnut (Trapa natans) Starch,” Starch-Starke 61 (2009): 35–42.
- 16A. Gani, S. S. Haq, F. A. Masoodi, A. A. Broadway, and A. Gani, “Physico-Chemical, Morphological and Pasting Properties of Starches Extracted From Water Chestnuts (Trapa natans) From Three Lakes of Kashmir, India,” Brazilian Archives of Biology and Technology 53 (2010): 731–740.
- 17Z. Guo, X. Jia, B. Zhao, S. Zeng, J. Xiao, and B. Zheng, “C-Type Starches and Their Derivatives: Structure and Function,” Annals of the New York Academy of Sciences 1398 (2017): 47–61.
- 18J. Mei, Y. Yuan, Y. Wu, and Y. Li, “Characterization of Edible Starch–Chitosan Film and Its Application in the Storage of Mongolian Cheese,” International Journal of Biological Macromolecules 57 (2013): 17–21.
- 19S. S. L. Sobhana, X. Zhang, L. Kesavan, P. Liias, and P. Fardim, “Layered Double Hydroxide Interfaced Stearic Acid—Cellulose Fibres: A New Class of Super-Hydrophobic Hybrid Materials,” Colloids and Surfaces A-Physicochemical and Engineering Aspects 522 (2017): 416–424.
- 20D. W. O'Connell, C. Birkinshaw, and T. F. O'Dwyer, “Heavy Metal Adsorbents Prepared From the Modification of Cellulose: A Review,” Bioresource Technology 99 (2008): 6709–6724.
- 21C. Bourlieu, V. Guillard, B. Valles-Pamies, S. Guilbert, and N. Gontard, “Edible Moisture Barriers: How to Assess of Their Potential and Limits in Food Products Shelf-Life Extension?,” Critical Reviews in Food Science and Nutrition 49 (2009): 474–499.
- 22Q. Chen, Y. Liu, and G. Chen, “A Comparative Study on the Starch-based Biocomposite Films Reinforced by Nanocellulose Prepared From Different Non-wood Fibers,” Cellulose 26 (2019): 2425–2435.
- 23J. A. Heredia-Guerrero, J. J. Benitez, P. Cataldi, et al., “All-Natural Sustainable Packaging Materials Inspired by Plant Cuticles,” Advanced Sustainable Systems 1 (2017): 1600024.
- 24K. K. Gaikwad, J. Y. Lee, and Y. S. Lee, “Development of Polyvinyl Alcohol and Apple Pomace Bio-Composite Film With Antioxidant Properties for Active Food Packaging Application,” Journal of Food Science and Technology-Mysore 53 (2016): 1608–1619.
- 25P. A. R. Fernandes, C. Le Bourvellec, C. M. G. C. Renard, et al., “Revisiting the Chemistry of Apple Pomace Polyphenols,” Food Chemistry 294 (2019): 9–18.
- 26R. C. Skinner, J. Tou, and V. Benedito, Apple Pomace as a Novel Aid for Western Diet-Induced Nonalcoholic Fatty Liver Disease in Young Female Sprague Dawley Rats, West Virginia University (2019).
10.33915/etd.3916 Google Scholar
- 27J. Li, P. Wu, J. Wang, and X. Meng, “Effective Approaches to Improve the Anti-Hyperuricemia Ability of Plant Polyphenols: A Review,” Food Reviews International (2024).
- 28V. Bélair, Bioavailability of Polyphenols Extracted From Fruit Pomace Using Green Technologies, McGill University (Canada) (2019).
- 29A. A. Arraibi, Cosmeceutical Potential of Apple Pomace Phenolic Compounds: Development of a Natural-Based Dermal Hydrogel as Proof of Concept, Instituto Politecnico de Braganca (Portugal) (2018).
- 30R. P. Feliciano, C. Antunes, A. Ramos, et al., “Characterization of Traditional and Exotic Apple Varieties From Portugal. Part 1 – Nutritional, Phytochemical and Sensory Evaluation,” Journal of Functional Foods 2 (2010): 35–45.
- 31W. Y. Hamad and T. Q. Hu, “Structure–Process–Yield Interrelations in Nanocrystalline Cellulose Extraction,” Canadian Journal of Chemical Engineering 88 (2010): 392–402.
- 32A. Takagaki, M. Toda, M. Okamura, et al., “Esterification of Higher Fatty Acids by a Novel Strong Solid Acid,” Catalysis Today 116 (2006): 157–161.
- 33C. Konik-Rose, J. Thistleton, H. Chanvrier, et al., “Effects of Starch Synthase IIa Gene Dosage on Grain, Protein and Starch in Endosperm of Wheat,” Theoretical and Applied Genetics 115 (2007): 1053–1065.
- 34Y.-J. Zhang, A.-M. Li, Y. Zhang, et al., “Morphological and Physicochemical Properties of Water Chestnut Starches: A Comparative Analysis of Three Varieties,” Chinese Journal of Structural Chemistry 38 (2019): 1463–1473.
- 35M. M. Lorente-Ayza, S. Mestre, V. Sanz, and E. Sanchez, “On the Underestimated Effect of the Starch Ash on the Characteristics of Low Cost Ceramic Membranes,” Ceramics International 42 (2016): 18944–18954.
- 36L. Cai and Y.-C. Shi, “Self-Assembly of Short Linear Chains to A- and B-Type Starch Spherulites and Their Enzymatic Digestibility,” Journal of Agricultural and Food Chemistry 61 (2013): 10787–10797.
- 37G. Antova, P. Vasvasova, and M. Zlatanov, “Studies Upon the Synthesis of Cellulose Stearate Under Microwave Heating,” Carbohydrate Polymers 57 (2004): 131–134.
- 38K. W. Kim and R. L. Thomas, “Antioxidative Activity of Chitosans With Varying Molecular Weights,” Food Chemistry 101 (2007): 308–313.
- 39W. Bai, J. Holbery, and K. Li, “A Technique for Production of Nanocrystalline Cellulose With a Narrow Size Distribution,” Cellulose 16 (2009): 455–465.
- 40M. A. Mosiewicki, P. Rojek, S. Michalowski, M. I. Aranguren, and A. Prociak, “Rapeseed Oil-Based Polyurethane Foams Modified With Glycerol and Cellulose Micro/Nanocrystals,” Journal of Applied Polymer Science 132 (2015): 10.
- 41C. S. R. Freire, A. J. D. Silvestre, C. P. Neto, M. N. Belgacem, and A. Gandini, “Controlled Heterogeneous Modification of Cellulose Fibers With Fatty Acids: Effect of Reaction Conditions on the Extent of Esterification and Fiber Properties,” Journal of Applied Polymer Science 100 (2006): 1093–1102.
- 42A. Edhirej, S. M. Sapuan, M. Jawaid, and N. I. Zahari, “Effect of Various Plasticizers and Concentration on the Physical, Thermal, Mechanical, and Structural Properties of Cassava-Starch-Based Films,” Starch-Starke 69 (2017): 1500366.
- 43C. W. Wong, S. K. S. Muhammad, M. H. Dzulkifly, N. Saari, and H. M. Ghazali, “Enzymatic Production of Linear Long-Chain Dextrin From Sago (Metroxylon sagu) Starch,” Food Chemistry 100 (2007): 774–780.
- 44M. Chiumarelli and M. D. Hubinger, “Evaluation of Edible Films and Coatings Formulated With Cassava Starch, Glycerol, Carnauba Wax and Stearic Acid,” Food Hydrocolloids 38 (2014): 20–27.
- 45X. Nie, Y. Gong, N. Wang, and X. Meng, “Preparation and Characterization of Edible Myofibrillar Protein-Based Film Incorporated With Grape Seed Procyanidins and Green Tea Polyphenol,” Lwt - Food Science and Technology 64 (2015): 1042–1046.
- 46A. Riaz, S. Lei, H. M. S. Akhtar, et al., “Preparation and Characterization of Chitosan-Based Antimicrobial Active Food Packaging Film Incorporated With Apple Peel Polyphenols,” International Journal of Biological Macromolecules 114 (2018): 547–555.
- 47M. Feng, L. Yu, P. Zhu, et al., “Development and Preparation of Active Starch Films Carrying Tea Polyphenol,” Carbohydrate Polymers 196 (2018): 162–167.
- 48Y. Qin, Y. Liu, H. Yong, and J. Liu, “Preparation and Characterization of Active and Intelligent Packaging Films Based on Cassava Starch and Anthocyanins From Lycium ruthenicum Murr,” International Journal of Biological Macromolecules 134 (2019): 80–90.
- 49R. R. Ferreira, A. G. Souza, Y. M. Quispe, and D. S. Rosa, “Essential Oils Loaded-Chitosan Nanocapsules Incorporation in Biodegradable Starch Films: A Strategy to Improve Fruits Shelf Life,” International Journal of Biological Macromolecules 188 (2021): 628–638.
- 50E. Kirtil, A. Aydogdu, T. Svitova, and C. J. Radke, “Assessment of the Performance of Several Novel Approaches to Improve Physical Properties of Guar Gum Based Biopolymer Films,” Food Packaging and Shelf Life 29 (2021): 100687.
- 51X. Li, Y. Liu, B. Luo, W. Xiang, and Z. Chen, “Effect of Apple Polyphenols on Physicochemical Properties of Pea Starch/Pulp Cellulose Nanofiber Composite Biodegradable Films,” International Journal of Biological Macromolecules 257 (2024): 128480.
- 52N. E. Marcovich, M. L. Auad, N. E. Bellesi, S. R. Nutt, and M. I. Aranguren, “Cellulose Micro/Nanocrystals Reinforced Polyurethane,” Journal of Materials Research 21 (2006): 870–881.
- 53A. Khan, R. A. Khan, S. Salmieri, et al., “Mechanical and Barrier Properties of Nanocrystalline Cellulose Reinforced Chitosan Based Nanocomposite Films,” Carbohydrate Polymers 90 (2012): 1601–1608.
- 54M. Yadav, K. Behera, Y.-H. Chang, and F.-C. Chiu, “Cellulose Nanocrystal Reinforced Chitosan Based UV Barrier Composite Films for Sustainable Packaging,” Polymers 12 (2020): 202.
- 55I. Leppanen, A. Hokkanen, M. Osterberg, and M. Vaha-Nissi, “Hybrid Films From Cellulose Nanomaterials—Properties and Defined Optical Patterns,” Cellulose 29 (2022): 8551–8567.
- 56S. S. Nair, C. Dartiailh, D. B. Levin, and N. Yan, “Highly Toughened and Transparent Biobased Epoxy Composites Reinforced With Cellulose Nanofibrils,” Polymers 11 (2019): 612.
- 57N. R. Savadekar and S. T. Mhaske, “Synthesis of Nano Cellulose Fibers and Effect on Thermoplastics Starch Based Films,” Carbohydrate Polymers 89 (2012): 146–151.
- 58L. Godbillot, P. Dole, C. Joly, B. Rogé, and M. Mathlouthi, “Analysis of Water Binding in Starch Plasticized Films,” Food Chemistry 96 (2006): 380–386.
- 59M. Hasan, T. K. Lai, D. A. Gopakumar, et al., “Micro Crystalline Bamboo Cellulose Based Seaweed Biodegradable Composite Films for Sustainable Packaging Material,” Journal of Polymers and the Environment 27 (2019): 1602–1612.
- 60G. Yang, R. Yu, S. Geng, et al., “Apple Polyphenols Modulates the Antioxidant Defense Response and Attenuates Inflammatory Response Concurrent With Hepatoprotective Effect on Grass Carp (Ctenopharyngodon idellus) Fed Low Fish Meal Diet,” Aquaculture 534 (2021): 736284.
- 61S. Rana, S. Kumar, A. Rana, Y. Padwad, and S. Bhushan, “Biological Activity of Phenolics Enriched Extracts From Industrial Apple Pomace,” Industrial Crops and Products 160 (2021): 113158.
- 62Y. R. Lu and L. Y. Foo, “Antioxidant and Radical Scavenging Activities of Polyphenols From Apple Pomace,” Food Chemistry 68 (2000): 81–85.
- 63S. Sekhon-Loodu, S. N. Warnakulasuriya, H. P. V. Rupasinghe, and F. Shahidi, “Antioxidant Ability of Fractionated Apple Peel Phenolics to Inhibit Fish Oil Oxidation,” Food Chemistry 140 (2013): 189–196.