Chitosan Nanocomposite Coatings for Food, Paints, and Water Treatment Applications
Abstract
:1. Introduction
2. Chitosan and its Properties
2.1. Source and Extraction
2.2. Physico-Chemical Properties of Chitosan
2.2.1. Degree of Deacetylation (DD)
2.2.2. Molecular Weight (MW)
2.2.3. Solubility
2.3. Antimicrobial Properties
2.4. Self-Healing Properties
3. Chitosan-Based Nanocomposites
3.1. Chitosan-Metal/Metal Oxide
3.2. Chitosan-Carbon Materials
3.3. Chitosan-Polymer Mixture or Copolymer
3.4. Chitosan-Clay Composites
Chitosan Molecular Weight/Viscosity | Type of Nanomaterials in Composite | Name of Nanomaterial/Polymer/Clay | Preparation Method of Chitosan Nanocomposite | Form of Chitosan Nanocomposites | Specific Application | Key/Enhanced Properties | Application Field | Reference |
---|---|---|---|---|---|---|---|---|
100 kDa | Metal | Ag nanoparticles | In situ reduction on chitosan | Thin film coating on bandage | Antibacterial activity against E. coli and S. aureus | Inactivation bacterial metabolism | Antimicrobial | [100] |
Medium molecular weight | Metal | Ag nanoparticles | In situ reduction on chitosan | Ag nanoparticles anchored on chitosan particles | Sensing of ammonia in solution | Sensitive in optical absorption intensity and wavelength | Environment | [101] |
Medium molecular weight | Metal oxide | ZnO nanoparticles | Blending | Thin film coating | Antifouling prevention | Anti-diatom activity and antibacterial activity against the marine bacterium | Anti-biofouling | [85,86] |
Low viscosity | Metal oxide | SiO2 nanoparticles | In situ Stöber method grown on chitosan | Slurry packed in liquid chromatography (LC) column | Adsorption of rare-earth elements | High adsorption efficiency, selectivity, and reusability | Environmental | [87] |
190–310 kDa | Carbon | Graphene oxide | Cross-linking | Thin film | Antimicrobial against E. coli and B. subtilis | Improved mechanical and antimicrobial properties | Antimicrobial | [88] |
300 kDa | Carbon | Graphene oxide | Cross-linking | Hydrogel | Removal of dyes and metal ions from water | Tunable surface charge; efficient removal of pollutants | Environmental | [89] |
N/A | Polymer | low density poly-ethylene (LDPE) film | Grafting | Coating | Significant changes in surface wettability | Improved anti-thrombogenic properties | Antifouling | [92] |
N/A | Clay | Halloysite clay nanotubes | Electrostatical adsorption | Coating | Anticorrosive protective | Improved passive barrier protective and self-healing | Environmental | [96] |
50–190 kDa | Clay | Bentonite and sepiolite | Blend | Thin film | Winemaking application | Enhanced immobilization of protease but negatively affected catalytic properties | Antimicrobial | [97] |
Medium molecular weight | Clay | Bentonite | Gelation and lyophilization | Bead | Carbon dioxide adsorption | High adsorption capacity under moderate condition | Environmental | [98] |
4. Applications of Chitosan-Based Nanocomposites
4.1. Water Purification
Chitosan-Based Nanocomposite | Dye/Metal | pH | Removal Process | References |
---|---|---|---|---|
CS/AgNPs | Methyl orange | 3–11 | Photocatalytic decolourization | [107] |
CS/AuNPs | 4-nitrophenol | No data | Catalytic reduction | [108] |
CS/TiO2 | Rhodamine-B, Congo red | 3–11 | Photocatalytic degradation under visible light irradiation | [109] |
CS/Polyaniline/CdS | Reactive Blue-19 | 6 | Adsorption | [110] |
CS/PVA/ZnO | Acid Black-1 | No data | Adsorption | [111] |
CS/SiO2/CNT | Direct Blue-71, Reactive Blue-19 | 0–12 | Adsorption | [112] |
CS/lignin/titania | Brilliant Black | No data | Adsorption | [113] |
CS/Bio-silica | Acid Red 88 | 1–12 | Adsorption | [114] |
CS/Palladium | 4-Nitrophenol | No data | Catalytic hydrogenation | [115] |
CS/SnO2 | Methyl orange, Rhodamine-B | No data | Photocatalytic degradation | [116] |
CS/Ag3PO4/CdS | Methyl orange | 3–8 | Photocatalytic decolourization | [117] |
CS/zirconium tungstate | Reactive Blue-21, Reactive Red-141, Rhodamine-6G and binary mixture; RB+RR, RR+RH, RB + RH | No data | Photocatalytic degradation | [118] |
CS/SnO2 intercalated polyaniline (PANI) | Methylene blue Reactive yellow-15 | No data | Photocatalytic degradation under direct sunlight irradiation | [119] |
CS/TiO2 fibers supported zero-valent metal nanoparticles (like Cu0, Co0, Ag0 and Ni0) | Methyl orange, Congo red (CR), Methylene blue, Acridine orange, 4-nitrohphenol, 2-nitrophenol, 3-nitrophenol, 2,6-dinitrophenol | No data | Catalytic reduction | [120] |
CS coated cotton cloth supported zero-valent metal nanoparticles | Methyl orange, Methylene blue,4-nitrohphenol, Rhodamine-B | No data | Catalytic reduction | [121] |
CS/MoO3/TiO2 | Methyl orange | No data | Photocatalytic degradation under solar light | [122] |
4.2. Antifouling Paints and Coatings
Application | Carrier/Additive | Type of the Study | Effective Against | References |
---|---|---|---|---|
Films | No | Laboratory | Bryozoan | [130] |
Films | No | Field | Micro-fouling | [131] |
Ultra-thin nanocoatings | No | Laboratory | Bacteria | [138] |
Films | Polyelectrolyte brushes | Laboratory and field | Pathogens, micro-fouling and macro-fouling | [134] |
Paints | Silicon-polyurethane | Field | Micro-fouling and macro-fouling | [129] |
ZnO nanocomposites | ZnO nanoparticles | Laboratory | Micro-fouling | [86] |
ZnO nanocomposites | ZnO nanoparticles | Laboratory | Pathogenic bacteria and fungi | [85] |
Silver nanocomposite films | Silver nanoparticles | Laboratory | Pathogenic bacteria | [132] |
Cellulose membranes | No | Laboratory | Pathogenic bacteria | [136] |
PAN-chitosan membranes | No | Laboratory | Bacteria | [139] |
Chitosan membranes | No | Laboratory | Pathogenic bacteria | [135] |
Forward osmosis membranes | Graphene oxide nanosheets | Laboratory | Proteins | [137] |
PES membranes | Fe3O4 nanoparticles | Laboratory | Proteins | [140] |
PES membranes | Silver nanoparticles | Laboratory | Proteins, bacteria | [141] |
4.3. Shelf-Life Extension of Fruits and Vegetables
4.3.1. Packaging Films
4.3.2. Coatings of Fruits and Vegetables
- Offer barrier properties against moisture and oxygen
- Help to deliver antimicrobial activity to inhibit or delay the microbial growth
- Deliver antioxidant effects that help to reduce the oxidation process, loss of colour, vitamins, etc.
- Help to maintain the loss of volatile components and stop acquiring foreign odours
5. Conclusions and Future Perspectives
Author Contributions
Funding
Conflicts of Interest
References
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CS/CS-Composite Film | CS Concentration in FFS (%, w/v) | Nano-Filler Concentration (% w/w of Solid Matter) | Food Systems/Applications | Antimicrobial Activity (Microorganism Tested) | Effect of Films | Thickness, Mechanical and Permeability Properties | References | |||
---|---|---|---|---|---|---|---|---|---|---|
Thickness (μm) | TS (MPa) | EAB (%) | WVP or WVTR | |||||||
CS/TiO2 | 2.5 | TiO2-10 | Red grapes | E. coli, S. aureus, C. albicans, A. niger | Red grapes were preserved for 22 days with composite film compared to 15 days with bare chitosan film before mildew occurred | 70 | 46.33 ± 1.88 | 25.77 ± 2.91 | No data | [147] |
CS/TiO2 | 2.0 | TiO2-1.0 | Tomato fruit | No data | Composite film delayed the ripening process of tomato fruits and loss in quality | No data | 16.43 ± 0.46 | 53.06 ± 2.15 | 19.14 ± 1.13 (gm−2d−1) | [159] |
CS/nano ZnO | 2.0 | Zinc acetate-100 | No data | E. coli, S. aureus | Composite films showed good antimicrobial activity against both Gram-negative and Gram-positive bacteria | No data | 41.73 ± 0.48 | 32.44 ± 0.52 | 22.53 ± 0.31 (g/h m2) | [160] |
CS/Gelatin/AgNPs | 1.8 | AgNPs-0.1 | Red grapes | No data | Shelf-life of red grapes were extended by 14 days compared to control | 87.60 ± 2.19 | 21.19 ± 1.01 | 27.23 ± 0.76 | No data | [155] |
CS/Bacterial cellulose nanocrystals (BCNC)/AgNPs | 1.0 | AgNPs-1.0 | No data | S. aureus, B. cereus, E. Coli, Ps. Aeruginosa, C. albicans | Addition of BCNC and/or AgNPs in chitosan film improved its physical, mechanical, and antimicrobial properties | 140 | 42.89 ± 1.76 | 22.50 ± 2.07 | 2.16 ± 0.06 (×10−10 g/smPa) | [151] |
CS/Polyurethane (PU)/nano ZnO | CS/PU ratio 0.25:0.75 | ZnONPs–1.0, 3.0 and 5.0 | Carrot pieces | E. coli, S. aureus | Composite films efficiently enhanced the shelf-life of carrot pieces by 9 days compared to control | 100 | 8.1 | 2.156 | 163.0 (g/m2/day) | [161] |
CS/Sulfur nanoparticles (SNP) | 2.67 | SNP-2.0 | No data | E. coli, L. monocytogenes | Composite films showed high antibacterial activity against foodborne pathogens and could be potentially used in antimicrobial food packaging | 55.6 ± 4.7 | 39.4 ± 4.4 | 8.3 ± 3.1 | 0.96 ± 0.17 (×10−9 g.m/m2.Pa.s) | [148] |
Chitosan Based Coating Formulations | Chitosan % (w/v) | Fruits and Vegetables Type | Effects of Coating | References |
---|---|---|---|---|
CS only | 1.0–3.0 | Rose or Pitaya fruit (Hylocercus undatus) | Coating containing 3% chitosan played the beneficial role for slowing down fruit withering, and maintained the fresh appearance and extended the maximal storability at ambient temperature | [162] |
CS only | 1.0 | Litchi fruit | Coating effectively reduced the respiration rate as well as transpiration rate of litchi fruits during storage | [163] |
CS only | 1.0 | Red kiwifruit (Actinidia melanandra) | Chitosan coating was found to enhance the shelf-life of kiwifruit | [164] |
CS only | 1.0–3.0 | Mango fruit (Mangifera indica) | Coating delayed the climacteric peak, water loss, firmness, and ultimately prolonged the quality attributes of fruit | [150] |
CS only | 1.0–3.0 | Guava fruit (Psidium guajava) | Coating effectively maintained the quality of guava fruits by increasing antioxidant value, and delaying ripening of fruits during storage at room temperature | [165] |
CS only (Low, med, and high molecular weight) | 1.0 | Kiwifruit (Actinidia kolomikta) | High-molecular-weight chitosan showed more pronounced improvements on the shelf-life of kiwifruit | [166] |
CS-nanoparticles | 1.0 | Table grapes | Edible coatings of chitosan nanoparticle efficiently delayed the ripening process and led to reduced weight loss, soluble solids, and sugar contents | [167] |
CS coating with modified atmosphere packaging (MAP) | 1.0 | Pomegranate fruit | Chitosan coating with MAP treatment led to maintenance of visual quality and initial red aril colour intensity of fruits for up to 6 months under cold storage at 6 °C. | [168] |
CS/Gum Arabic | 1.0 | Banana fruit | Coating delayed ripening by decreasing the rate of respiration of fruits and enhanced shelf-life for up to 33 days | [169] |
CS/Ascorbic acid | 1.0–2.0 | Pomegranate arils | Shelf-life of arils could be extended to 21 days at 5 °C from 10 days for uncoated arils (control) | [170] |
CS/g-Salicylic acid | 1.0 | Table grapes | Composite coatings on grapes improved the post-harvest life by decreasing the rate of respiration, decay incidence, and weight loss, and by maintaining/improving levels of total soluble solids, titratable acidity, and sensory attributes during storage | [171] |
CS/beeswax | 1.5–2.0 | Mango fruit (M. indica) | Coating on fruits ultimately maintained firmness and improved shelf-life up to 3 weeks compared to control (uncoated) | [172] |
CS/ PVP/ Salicylic acid (SA) | 1.0 | Guava fruit (P. guajava) | Fruits coated with CS/PVP-SA showed minimum loss in water and browning of skin that helped in maintaining fruit colour and firmness | [173] |
CS/Alginate with Pomegranate peel extract (PPE) | 1.0 | Guava fruit (P. guajava) | Coatings proved efficient in maintaining the quality of guava for up to 20 days at low temperature storage | [174] |
CS/CMC/ Moringa leaf extract | 0.5–1.0 | Avocado fruit (Persea americana) | Coating on fruits efficiently reduced the respiration rate, moisture loss, and firmness that ultimately helps in improving fruit quality and shelf-life | [175] |
CS/PVA blended with ascorbic acid (AA) | N/A | ‘Superior seedless’ grapes | Coating treatment significantly reduced water loss, shattering of berry, and delayed the colour change and titratable acidity | [176] |
CS/Pullulan, CS/Linseed, CS/Nopal cactus, CS/Aloe mucilage | 1.5 | Fresh-cut pineapple (Ananas comosus) | Layer-by-layer edible coatings were beneficial to maintain the quality and extension of the shelf-life of cut pineapple | [177] |
CS/MMT | 1.5 | Tangerine fruits | Coated fruit showed reduced decay rate, loss in weight, and improvements in total soluble solids and titratable acidity | [178] |
CS/nano-silica | 2.0 | Longan fruit | Coating shown to improve the quality of longan fruits for the period of extended storage | [179] |
CS-AgNPs | 1.0 | Fresh-cut melon | Coatings decreased the rate of respiration and rate of production of ethylene compared to uncoated samples and thus had better sensory quality up to 13 days at 5 °C | [84] |
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Kumar, S.; Ye, F.; Dobretsov, S.; Dutta, J. Chitosan Nanocomposite Coatings for Food, Paints, and Water Treatment Applications. Appl. Sci. 2019, 9, 2409. https://doi.org/10.3390/app9122409
Kumar S, Ye F, Dobretsov S, Dutta J. Chitosan Nanocomposite Coatings for Food, Paints, and Water Treatment Applications. Applied Sciences. 2019; 9(12):2409. https://doi.org/10.3390/app9122409
Chicago/Turabian StyleKumar, Santosh, Fei Ye, Sergey Dobretsov, and Joydeep Dutta. 2019. "Chitosan Nanocomposite Coatings for Food, Paints, and Water Treatment Applications" Applied Sciences 9, no. 12: 2409. https://doi.org/10.3390/app9122409
APA StyleKumar, S., Ye, F., Dobretsov, S., & Dutta, J. (2019). Chitosan Nanocomposite Coatings for Food, Paints, and Water Treatment Applications. Applied Sciences, 9(12), 2409. https://doi.org/10.3390/app9122409