# Cellulose-Based Nanoparticles Processed from Agricultural Waste Biomass—A Review

**Authors:** Shadrack Mubanga Chisenga, Francis Collins Muga, Olabisi Mariam Okesola, Jones Yengwe, Haibao Liu, Peter Kaluba, Alice Mutiti Mweetwa, Zizikazi Sodzidzi

PMC · DOI: 10.3390/nano16060387 · Nanomaterials · 2026-03-23

## TL;DR

This review explores how agricultural waste can be turned into useful nanoparticles for industrial applications like food packaging and materials production.

## Contribution

The paper provides a systematic review of screening criteria and production methods for nanoparticles from agricultural waste.

## Key findings

- Cellulose content and crystallinity are key factors in selecting suitable agricultural waste for nanoparticle production.
- Zeta potential and surface charge influence nanoparticle interactions in industrial applications.
- Pyrolysis is a key method for producing biochar-derived nanoparticles from agricultural waste.

## Abstract

The nanoparticles processed from non-edible crop materials and residues have evoked great use in the food and non-food industry. The diversity in agricultural waste biomass and differences in extraction techniques account for variations in end-product properties, and would require examination of waste crop types (source) to determine suitability for the production of cellulose, nanocellulose and graphene particles. This review showed that screening criteria of end-user properties include chemical composition, cellulose contents, morphology, crystallinity, thermal stability, rheology, surface charge and zeta potential. The literature shows that the end-user properties vary with plant source (that is crop type) and extraction techniques. In this review, the cellulose content and percentage crystallinity are primary parameters for selecting agricultural waste biomass for the production of nanocellulose and nanofibrils. Additionally, zeta potential and surface charge can determine polymer interaction for suitability in industrial applications. Moreover, nanocellulose and biochar were found to have various industrial applications as ingredients in the production of food packaging including active packaging, rheological modifiers and thickeners. Pyrolysis is the eminent strategy for the transformation of agricultural waste into biochar-derived nanoparticles and carbon-rich materials.

## Full-text entities

- **Diseases:** Pyrosis (MESH:D006356), cytotoxicity (MESH:D064420), injury to (MESH:D014947), inflammation (MESH:D007249), cancer (MESH:D009369), weight loss (MESH:D015431), fibrillation (MESH:D014693), lung adenocarcinoma (MESH:D000077192)
- **Chemicals:** polysaccharide (MESH:D011134), starch (MESH:D013213), H2SO4 (MESH:C033158), NaOH (MESH:D012972), doxorubicin (MESH:D004317), cobalt (MESH:D003035), sodium sulfide (MESH:C033479), lipids (MESH:D008055), Hemicellulose (MESH:C007916), ether (MESH:D004986), levoglucosan (MESH:C014989), Potassium (MESH:D011188), Zn (MESH:D015032), pectin (MESH:D010368), silver (MESH:D012834), glycerol (MESH:D005990), arsenic (MESH:D001151), sorbitol (MESH:D013012), Nafion (MESH:C040402), fluoride (MESH:D005459), acetic acid (MESH:D019342), titanium dioxide (MESH:C009495), carbon nanotubes (MESH:D037742), monosaccharide (MESH:D009005), docetaxel (MESH:D000077143), Cl (MESH:D002713), Lignocellulose (MESH:C036909), ZnO (MESH:D015034), hexose (MESH:D006601), xylan (MESH:D014990), alkali (MESH:D000468), 1-ethyl-3-methylimidazolium acetate (MESH:C518739), bio-oil (MESH:C000613328), Fe (MESH:D007501), alcohol (MESH:D000438), polylactic acid (MESH:C033616), heavy metals (MESH:D019216), Acid (MESH:D000143), O (MESH:D010100), polyvinyl alcohol (MESH:D011142), chloride (MESH:D002712), Ethanol (MESH:D000431), sulfite (MESH:D013447), lactic acid (MESH:D019344), paclitaxel (MESH:D017239), rifampicin (MESH:D012293), mercury (MESH:D008628), carbon (MESH:D002244), carboxymethyl cellulose (MESH:D002266), Polymer (MESH:D011108), nitric oxide (MESH:D009569), sodium periodate (MESH:C009288), sulfate (MESH:D013431), nickel (MESH:D009532), Mg+2 (-), cadmium (MESH:D002104), xylose (MESH:D014994), nitric acid (MESH:D017942), 2,2,6,6-tetramethylpiperidine1-oxyl (MESH:C003959), pentose (MESH:D010429)
- **Species:** Trichoderma reesei (species) [taxon 51453], Ulva lactuca (species) [taxon 63410], Arachis hypogaea (goober, species) [taxon 3818], Lactobacillus acidophilus (species) [taxon 1579], Ulva arasakii (sea lettuce, species) [taxon 3119], Homo sapiens (human, species) [taxon 9606], Streptococcus mutans (species) [taxon 1309], Oryza sativa (Asian cultivated rice, species) [taxon 4530], Talaromyces verruculosus (species) [taxon 198730], Olea europaea (common olive, species) [taxon 4146], Ananas comosus (pineapple, species) [taxon 4615], Thermothelomyces thermophilus (species) [taxon 78579], Aspergillus niger (species) [taxon 5061]
- **Cell lines:** HEK293 — Homo sapiens (Human), Transformed cell line (CVCL_0045), H460 — Homo sapiens (Human), Lung large cell carcinoma, Cancer cell line (CVCL_0459), A549 — Homo sapiens (Human), Lung adenocarcinoma, Cancer cell line (CVCL_0023), KB — Homo sapiens (Human), Human papillomavirus-related endocervical adenocarcinoma, Cancer cell line (CVCL_0372)

## Full text

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## Figures

3 figures with captions in the complete paper: https://tomesphere.com/paper/PMC13028914/full.md

## References

171 references — full list in the complete paper: https://tomesphere.com/paper/PMC13028914/full.md

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Source: https://tomesphere.com/paper/PMC13028914