# Revolutionizing agroecosystems through next-generation bio-nanofertilizers: an overview toward sustainable agriculture

**Authors:** Samukarani Swain, Lala Behari Sukla, D. P. Krishna Samal

PMC · DOI: 10.1039/d6na00006a · Nanoscale Advances · 2026-02-24

## TL;DR

Bio-nanofertilizers offer a sustainable alternative to chemical fertilizers by improving nutrient efficiency, reducing environmental harm, and boosting crop yields.

## Contribution

This review highlights the potential of bionanofertilizers to revolutionize agriculture through eco-friendly, nutrient-efficient solutions.

## Key findings

- Bionanofertilizers reduce fertilizer use by 30 to 100 times compared to chemical fertilizers.
- They increase crop yields by 24 to 32% across various crops and soil types.
- These fertilizers enhance soil health, plant growth, and stress resistance while minimizing environmental pollution.

## Abstract

The rising global population demands a 70% increase in crop production to satisfy future food needs. This challenge requires a collaborative effort to boost food production while maintaining sustainable agricultural practices. While common chemical fertilizers can promote plant growth and yield, their overuse damages soil biota and fertility and pollutes the environment. Therefore, nanofertilizers are emerging as a promising alternative to conventional options, helping to reduce environmental impact and becoming essential for future farming. Bionanofertilizers are advanced materials made of nanoscale particles and beneficial microbes engineered to supply vital macro- and micronutrients. They improve nutrient efficiency and lessen environmental harm. These fertilizers provide controlled nutrient release, targeted delivery, and better bioavailability, overcoming the limitations of traditional fertilizers such as nutrient loss, soil degradation, and pollution. They promote plant growth, photosynthesis, and stress resistance, while also enhancing soil health and decreasing application frequency and costs. The need for nanofertilizers is 30 to 100 times lower than that for chemical fertilizers, making them more economical. On average, they increase yields by 24 to 32% across various crops and soil types. This review assesses evidence suggesting that bionanofertilizers can transform agricultural practices and provide sustainable, eco-friendly solutions for enhancing soil health and crop management.

Synthesis of bio-nano fertilizers and their application in sustainable agriculture.

## Full-text entities

- **Genes:** catalase [NCBI Gene 101513499], peroxidase [NCBI Gene 548137]
- **Diseases:** discoloration (MESH:D014075), water loss (MESH:D000069578), stunted growth (MESH:D006130), inflammation (MESH:D007249), drought (MESH:C536747), fungal (MESH:D009181), bacterial diseases (MESH:D001424), death (MESH:D003643), infection (MESH:D007239), ionic toxicity (MESH:D064420), heavy metal (MESH:D000075322)
- **Chemicals:** oil (MESH:D009821), Salt (MESH:D012492), H2O2 (MESH:D006861), biochar (MESH:C540010), amino acids (MESH:D000596), Silicon (MESH:D012825), K2SO4 (MESH:C031512), Polyurethane (MESH:D011140), calcium phosphate (MESH:C020243), Mg (MESH:D008274), ZnP (MESH:C010423), Na+ (MESH:D012964), saponin (MESH:D012503), salicylic acid (MESH:D020156), ROS (MESH:D017382), paraffin oil (MESH:C015418), Phosphate (MESH:D010710), aluminum (MESH:D000535), SiO2 (MESH:D012822), P (MESH:D010758), Water (MESH:D014867), chlorophyll (MESH:D002734), Mineral (MESH:D008903), proline (MESH:D011392), Urea (MESH:D014508), N (MESH:D009584), biopolymers (MESH:D001704), Copper (MESH:D003300), Se (MESH:D012643), S (MESH:D013455), graphene (MESH:D006108), alginate (MESH:D000464), hydroxides (MESH:D006878), metal (MESH:D008670), carbohydrate (MESH:D002241), Apatite (MESH:D001031), chitin (MESH:D002686), Carbon (MESH:D002244), auxin (MESH:D007210), heavy metal (MESH:D019216), acids (MESH:D000143), Ca (MESH:D002118), Manganese (MESH:D008345), Mo (MESH:D008982), lignin (MESH:D008031), MgO (MESH:D008277), Bionanofertilizers (-), CeO (MESH:C030583), polymer (MESH:D011108), Ammonium sulfate (MESH:D000645), Silver (MESH:D012834), Zinc (MESH:D015032), K (MESH:D011188), lipids (MESH:D008055), Zeolite (MESH:D017641), wax (MESH:D014885), polysaccharides (MESH:D011134), starch (MESH:D013213), B (MESH:D001895), Au (MESH:D006046)
- **Species:** Momordica charantia (balsam pear, species) [taxon 3673], Helianthus annuus (common sunflower, species) [taxon 4232], Narcissus pseudonarcissus (daffodil, species) [taxon 39639], Ralstonia solanacearum (species) [taxon 305], Sesamum indicum (beniseed, species) [taxon 4182], Trichodesmium (genus) [taxon 1205], uncultured cyanobacterium (species) [taxon 1211], PX clade (clade) [taxon 569578], Solanum lycopersicum (tomato, species) [taxon 4081], Sorghum bicolor (broomcorn, species) [taxon 4558], Vigna radiata (mung bean, species) [taxon 157791], Cucumis sativus (cucumber, species) [taxon 3659], Rhizobium (genus) [taxon 379], Auxenochlorella pyrenoidosa (species) [taxon 3078], Saccharomyces cerevisiae (baker's yeast, species) [taxon 4932], Cicer arietinum (chickpea, species) [taxon 3827], Glycine max (soybean, species) [taxon 3847], Vigna (genus) [taxon 3913], Carthamus tinctorius (safflower, species) [taxon 4222], Oryza sativa (Asian cultivated rice, species) [taxon 4530], Medicago sativa (alfalfa, species) [taxon 3879], Crataegus (hawthorn, genus) [taxon 23159], Zea mays (maize, species) [taxon 4577], Neltuma velutina (velvet mesquite, species) [taxon 207719], Pseudomonas (RNA similarity group I, genus) [taxon 286], Cucurbita melopepo (species) [taxon 3665], Lens culinaris (lentil, species) [taxon 3864], Frankia (genus) [taxon 1854], Hordeum vulgare (barley, species) [taxon 4513], Arachis hypogaea (goober, species) [taxon 3818], Homo sapiens (human, species) [taxon 9606], Abelmoschus esculentus (lady's fingers, species) [taxon 455045]

## Full text

_Full body text omitted from this summary view._ Fetch the complete paper as Markdown: https://tomesphere.com/paper/PMC12969074/full.md

## Figures

7 figures with captions in the complete paper: https://tomesphere.com/paper/PMC12969074/full.md

## References

148 references — full list in the complete paper: https://tomesphere.com/paper/PMC12969074/full.md

---
Source: https://tomesphere.com/paper/PMC12969074