# Hydrocolloid–Nanomaterial Composite Films: Preservation Performance, Preparation Method and Sustainable Development

**Authors:** Lin Meng, Cheng Peng, Linling Li, Yingtang Lu, Hua Cheng

PMC · DOI: 10.3390/foods15040685 · 2026-02-13

## TL;DR

This paper reviews hydrocolloid-nanomaterial composite films as eco-friendly, functional alternatives to traditional plastic packaging.

## Contribution

The paper systematically summarizes recent advances in preparation methods and functional properties of hydrocolloid–nanomaterial films.

## Key findings

- Hydrocolloid–nanomaterial films offer antimicrobial, antioxidant, and UV-shielding properties.
- Techniques like electrospinning and solution casting improve mechanical and barrier performance.
- Challenges include nanomaterial dispersion, migration risks, and scalability.

## Abstract

Traditional plastic preservation films face significant environmental challenges due to their non-degradable nature and limited functional versatility. In contrast, hydrocolloid–nanomaterial composite films—which integrate biopolymer matrices (e.g., cellulose, chitosan, alginate and gelatin) with nanoparticles such as SiO2, Se, TiO2, or ZnO—have emerged as a prominent research focus. These composite films preserve the inherent biodegradability and biocompatibility of hydrocolloids, while the nanomaterials, when stably dispersed, enhance interfacial interactions through electrostatic forces, hydrogen-bonding, or coordination bonds. This synergy endows the films with multifunctional properties, including antimicrobial activity, antioxidant capacity, UV-shielding performance, and stimuli-responsive intelligence. Prepared via techniques like electrospinning, solution casting, reactive extrusion, and coating, they exhibit excellent mechanical strength, barrier properties, and multifunctionality, effectively extending the shelf life of fruits, vegetables, meats, etc. However, challenges remain: nanomaterial dispersion, migration risks, and scalable production. This review summarizes recent advances to guide green preparation optimization, balance performance and safety, and advance sustainable development in food packaging.

## Linked entities

- **Chemicals:** SiO2 (PubChem CID 24261), Se (PubChem CID 5460640), TiO2 (PubChem CID 26042), ZnO (PubChem CID 14806)

## Full-text entities

- **Genes:** peroxidase [NCBI Gene 103970153]
- **Diseases:** hemolysis (MESH:D006461), injury to (MESH:D014947), pain (MESH:D010146), water (MESH:D000069578), banana (MESH:C000721327), carcinogenicity (MESH:D011230), Weight loss (MESH:D015431), cytotoxicity (MESH:D064420)
- **Chemicals:** free radicals (MESH:D005609), HG (MESH:C003181), ZnO (MESH:D015034), sorbitol (MESH:D013012), amide (MESH:D000577), Schiff base (MESH:D012545), 2-hydroxypropyl-beta-cyclodextrin (MESH:D000073738), H2O (MESH:D014867), essential oils (MESH:D009822), capsanthin (MESH:C006889), CMS (MESH:C034848), cinnamaldehyde (MESH:C012843), alpha-L-guluronic acid (MESH:C007896), Cu (MESH:D003300), carboxymethyl chitosan (MESH:C514968), resveratrol (MESH:D000077185), chloroacetic acid (MESH:C006972), Ag (MESH:D012834), SBA-15 (MESH:C509969), DTB (MESH:C001115), glycine (MESH:D005998), HA (MESH:D006820), ethanol (MESH:D000431), xanthan gum (MESH:C002563), hydroxyethyl cellulose (MESH:C002283), LDPE (MESH:D020959), SC (MESH:D012538), proline (MESH:D011392), amylose (MESH:D000688), RG-II (MESH:C042492), COO- (MESH:C041069), metal (MESH:D008670), EGCG (MESH:C045651), CNC (MESH:D000069449), Sodium Alginate (MESH:D000464), zinc (MESH:D015032), O2- (MESH:D010100), Chitosan (MESH:D048271), cellulose acetate (MESH:C005062), choline citrate (MESH:D002794), N (MESH:D009584), quercetin (MESH:D011794), andrographolide (MESH:C030419), Polysaccharide (MESH:D011134), Pectin (MESH:D010368), graphene oxide (MESH:C000628730), SeNPs (MESH:C059702), ethylene glycol (MESH:D019855), KGM (MESH:C022901), amylopectin (MESH:D000687), polymer (MESH:D011108), rutin (MESH:D012431), DPPH (MESH:C004931), Hydroxypropyl methylcellulose (MESH:D065347), chitin (MESH:D002686), RG-I (MESH:C042491), CO2 (MESH:D002245), TiO2 (MESH:C009495), CMC (MESH:D002266), citrate (MESH:D019343)
- **Species:** Mangifera indica (mango, species) [taxon 29780], Macrocystis (genus) [taxon 35121], Neopestalotiopsis sp. (species) [taxon 1849553], Allium sativum (garlic, species) [taxon 4682], Dioscorea alata (greater yam, species) [taxon 55571], Ficus carica (common fig, species) [taxon 3494], Escherichia coli (E. coli, species) [taxon 562], Malus domestica (apple, species) [taxon 3750], Bacillus subtilis (species) [taxon 1423], Mus musculus (house mouse, species) [taxon 10090], Aspergillus niger (species) [taxon 5061], Musa acuminata (banana, species) [taxon 4641], Caryocar brasiliense (species) [taxon 480971], Solanum tuberosum (potatoes, species) [taxon 4113], Fusarium oxysporum (species) [taxon 5507], Bos taurus (bovine, species) [taxon 9913], Bacteriophage sp. (species) [taxon 38018], Manihot esculenta (cassava, species) [taxon 3983], Listeria monocytogenes (species) [taxon 1639], Staphylococcus aureus (species) [taxon 1280], Homo sapiens (human, species) [taxon 9606], Colletotrichum gloeosporioides (species) [taxon 474922]
- **Cell lines:** /6 — Homo sapiens (Human), Tongue squamous cell carcinoma, Cancer cell line (CVCL_5985), L929 — Mus musculus (Mouse), Spontaneously immortalized cell line (CVCL_AR58), NIH 3T3 — Mus musculus (Mouse), Spontaneously immortalized cell line (CVCL_0594)

## Figures

5 figures with captions in the complete paper: https://tomesphere.com/paper/PMC12939736/full.md

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Source: https://tomesphere.com/paper/PMC12939736