# Sustainable bioplastics manufacturing from renewable sources

**Authors:** C. Valeria L. Giosafatto, Marika Avitabile, Michela Famiglietti, Talayeh Kordjazi, Marzieh Moosavi‐Nasab, Odile F. Restaino, Loredana Mariniello

PMC · DOI: 10.1002/2211-5463.70174 · FEBS Open Bio · 2026-03-18

## TL;DR

This paper reviews recent advances in bioplastics made from renewable sources, highlighting their biodegradability and suitability for various applications as sustainable alternatives to fossil-based plastics.

## Contribution

The paper provides a focused review on recent developments in bioplastics, emphasizing their material properties and applications.

## Key findings

- Bioplastics offer biodegradability and functional properties suitable for packaging, agriculture, textiles, and pharmaceuticals.
- Recent developments highlight distinct properties of bioplastics based on their polymer origins.
- Film-forming properties, barrier functionality, and thermal stability are key areas of recent empirical findings.

## Abstract

Fossil‐based material manufacturing has long been linked to the acceleration of climate change through carbon dioxide emissions. In addition to their negative impact on the environment, the depletion of nonrenewable fossil fuels has led to a global demand for sustainable and environmentally friendly alternatives. This has sparked a surge of academic interest in the past few decades on the manufacture of bio‐based materials as substitutes for fossil‐based materials. As sustainability becomes a global imperative, bioplastics are rapidly emerging as a viable alternative to conventional petroleum‐derived plastics. These materials might be manufactured by using polymers from different bio‐based sources such as plants, animal tissues, or can have a microbial origin. Bioplastics not only offer biodegradability, thereby reducing long‐term environmental impact, but also possess various functional properties that make them suitable for diverse applications, including packaging, agriculture, textiles and pharmaceuticals. This review focuses on new developments in bioplastics regarding their material, processing, and applications. Recent developments in the preparation of bioplastics are reported, highlighting the distinct properties of each type of material according to the polymers of origin. Special attention is given to the film‐forming properties, the barrier functionality, thermal stability, and compatibility with the bioactive compounds, supported by recent empirical findings.

Bioplastics are manufactured by using polymers from different bio‐based sources. These novel materials not only offer biodegradability but also possess various functional properties that make them suitable for diverse applications. Recent developments in the preparation of bioplastics are reported, highlighting the distinct properties of each type of material according to the polymers of origin.

## Full-text entities

- **Diseases:** TEAC (MESH:D064386), microbial infections (MESH:D015163), PCL (MESH:C566082), bacterial infections (MESH:D001424), fungal (MESH:D009181), inflammatory (MESH:D007249)
- **Chemicals:** Sorbitol (MESH:D013012), vegetable oils (MESH:D010938), monosaccharide (MESH:D009005), ammonium (MESH:D064751), TiO2 (MESH:C009495), arginines (MESH:D001120), CNTs (MESH:D037742), Chitosan (MESH:D048271), Polyester (MESH:D011091), alcohol (MESH:D000438), iron (MESH:D007501), spermidine (MESH:D013095), Polysaccharide (MESH:D011134), Starch (MESH:D013213), phloretin (MESH:D010693), lipids (MESH:D008055), poly(3-hydroxybutyrate-co-3-hydroxyvalerate (MESH:C052620), amylopectin (MESH:D000687), calcium carbonate (MESH:D002119), lactide (MESH:C091880), Pectin (MESH:D010368), silver (MESH:D012834), glucosamine (MESH:D005944), Glycerol (MESH:D005990), PHA (MESH:D054813), kaolin (MESH:D007616), polymer (MESH:D011108), aldehyde (MESH:D000447), Aliphatic-aromatic-copolyesters (-), trimethylene glycol (MESH:C041787), Citric acid (MESH:D019343), glyoxal (MESH:D006037), Lignin (MESH:D008031), tartaric acid (MESH:C029768), hydrogen (MESH:D006859), methane (MESH:D008697), Curcumin (MESH:D003474), polyamines (MESH:D011073), Disulfide (MESH:D004220), PLA (MESH:C033616), thiol (MESH:D013438), acids (MESH:D000143), propylene glycol (MESH:D019946), glutamine (MESH:D005973), polyethene (MESH:D020959), O2 (MESH:D010100), anthocyanin (MESH:D000872), carbon (MESH:D002244), chitin (MESH:D002686), lactic acid (MESH:D019344), PCL (MESH:C016240), CO2 (MESH:D002245), carbohydrate (MESH:D002241), ascorbic acid (MESH:D001205), PBS (MESH:C089797), spermine (MESH:D013096), 2,2-diphenyl-1-picrylhydrazyl (MESH:C004931), polyphenols (MESH:D059808), NH2 (MESH:D000588), cellulose (MESH:D002482)
- **Species:** Listeria monocytogenes (species) [taxon 1639], Homo sapiens (human, species) [taxon 9606], Powellomyces sp. EA (species) [taxon 252690], Arachis hypogaea (goober, species) [taxon 3818], Pseudomonas (RNA similarity group I, genus) [taxon 286], Erythrobacter (genus) [taxon 1041], Manihot esculenta (cassava, species) [taxon 3983], Oryza sativa (Asian cultivated rice, species) [taxon 4530], Cupriavidus necator (species) [taxon 106590], Solanum tuberosum (potatoes, species) [taxon 4113], Bacteria Latreille et al. 1825 (Bacteria stick insect, genus) [taxon 629395], Malus domestica (apple, species) [taxon 3750], Saccharomyces cerevisiae (baker's yeast, species) [taxon 4932], Bacillus subtilis (species) [taxon 1423], Escherichia coli (E. coli, species) [taxon 562], Bacillus sp. (in: firmicutes) (species) [taxon 1409], Enterococcus faecalis (species) [taxon 1351], PX clade (clade) [taxon 569578], Enterobacter (genus) [taxon 547], Helianthus annuus (common sunflower, species) [taxon 4232], Posidonia oceanica (species) [taxon 55489], Corynebacterium glutamicum (species) [taxon 1718], Thymbra (genus) [taxon 306405], Aspergillus (genus) [taxon 5052], Streptomyces (genus) [taxon 1883], Foeniculum vulgare [taxon 48038]

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## References

147 references — full list in the complete paper: https://tomesphere.com/paper/PMC13042844/full.md

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Source: https://tomesphere.com/paper/PMC13042844