# Modulation of Grapevine Physiological Performance by Compost and Vermicompost Obtained from Vine Pruning Residues

**Authors:** Carolina Maia, Sandra Pereira, Renata Moura, Cátia Brito, Miguel Baltazar, Sandra Martins, Zélia Branco, Marta Roboredo, Elisabete Nascimento-Gonçalves, João R. Sousa, Ana M. Coimbra, Tiago Azevedo, Henda Lopes, Maria C. Morais, Paula A. Oliveira, Lia-Tânia Dinis

PMC · DOI: 10.3390/plants15040558 · Plants · 2026-02-10

## TL;DR

This study shows that compost and vermicompost made from vineyard waste can improve grapevine growth and photosynthesis as effectively as chemical fertilizers.

## Contribution

The study reveals distinct physiological effects of compost versus vermicompost from vine pruning residues on grapevines.

## Key findings

- Vermicompost increased CO2 assimilation, stomatal conductance, and shoot and root elongation.
- Compost improved intrinsic water use efficiency and root biomass.
- Organic amendments supported grapevine performance comparable to mineral fertilization.

## Abstract

Recycling vineyard pruning residues into compost and vermicompost represents a sustainable strategy to reduce viticulture’s reliance on chemical fertilizers. Nonetheless, their effects on plant performance remain poorly understood. This study evaluated the effect of vine pruning residues compost and vermicompost on the physiological, biochemical, and growth performance of Vitis vinifera L. cv. Touriga Franca, in comparison with mineral fertilization and an unfertilized control. A pot experiment was conducted from April to September 2024 in northern Portugal under Mediterranean climate conditions, using one-year-old grapevines and subjected to four fertilization treatments. Leaf gas exchange, chlorophyll a fluorescence, photosynthetic pigments, antioxidant and osmoprotective metabolites, and shoot and root development were assessed at three sampling dates during the growing season. Organic amendments enhanced photosynthetic performance and root growth relative to the unfertilized control. Vermicompost promoted higher CO2 assimilation, stomatal conductance, and shoot and root elongation, whereas compost increased intrinsic water use efficiency, photochemical regulation, and root biomass. Biochemical analyses indicated that compost favored protein and carotenoid accumulation, while vermicompost increased proline and later protein levels, alongside reduced phenolic and flavonoid contents. Despite their similar chemical composition, compost and vermicompost induced distinct physiological responses driven by differences in biological activity and nutrient dynamics. These findings demonstrate that pruning-derived organic amendments can match mineral fertilization in supporting grapevine performance while offering additional benefits for stress regulation and sustainable vineyard management.

## Full-text entities

- **Diseases:** injury to (MESH:D014947)
- **Chemicals:** auxin (MESH:D007210), boron (MESH:D001895), Ca (MESH:D002118), ethanol (MESH:D000431), Mn (MESH:D008345), glucose (MESH:D005947), Mg (MESH:D008274), K2O (MESH:C068440), flavonoid (MESH:D005419), acetic acid (MESH:D019342), vitamin C (MESH:D001205), Cu (MESH:D003300), a (MESH:D001151), HCl (MESH:D006851), glutamate (MESH:D018698), molybdenum (MESH:D008982), KCl (MESH:D011189), chlorophyll b (MESH:C037184), catechin (MESH:D002392), barium chloride (MESH:C024986), pyrophosphate (MESH:C107241), Fe (MESH:D007501), CAE (MESH:C042831), 2.2-azinobis-(3-ethylbenzothiazoline-6-sulfonic acid (MESH:C002502), superphosphate (MESH:C033414), CO2 (MESH:D002245), greenhouse gases (MESH:D000074382), Carotenoids (MESH:D002338), AlCl3 (MESH:D000077410), Ap (MESH:D000667), E (MESH:D004540), phenol (MESH:D019800), H2O (MESH:D014867), C (MESH:D002244), acetone (MESH:D000096), carbohydrate (MESH:D002241), Chlorophyll (MESH:D002734), Coomassie Brilliant Blue (MESH:C004692), Phenols (MESH:D010636), EDTA (MESH:D004492), N (MESH:D009584), P2O5 (MESH:C012500), amino acids (MESH:D000596), potassium phosphate (MESH:C013216), ammonium lactate (MESH:D019344), mineral (MESH:D008903), shikimate (MESH:C000723335), toluene (MESH:D014050), Na (MESH:D012964), O (MESH:D010100), Zn (MESH:D015032), kinetin (MESH:D007701), gallic acid (MESH:D005707), Sugars (MESH:D000073893), nitrate (MESH:D009566), P (MESH:D010758), K (MESH:D011188), sulfosalicylic acid (MESH:C003366), Proline (MESH:D011392), carbonates (MESH:D002254)
- **Species:** Carica papaya (mamon, species) [taxon 3649], Cajanus cajan (pigeon pea, species) [taxon 3821], Vitis vinifera (wine grape, species) [taxon 29760], Bos taurus (bovine, species) [taxon 9913], Clinacanthus nutans (species) [taxon 714457], Chenopodium quinoa (quinoa, species) [taxon 63459], Homo sapiens (human, species) [taxon 9606], earthworms (species) [taxon 71170], Musa acuminata (banana, species) [taxon 4641], Cicer arietinum (chickpea, species) [taxon 3827], Prunus persica (peach, species) [taxon 3760], Olea europaea (common olive, species) [taxon 4146], Solanum lycopersicum (tomato, species) [taxon 4081]

## Full text

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## Figures

3 figures with captions in the complete paper: https://tomesphere.com/paper/PMC12944726/full.md

## References

118 references — full list in the complete paper: https://tomesphere.com/paper/PMC12944726/full.md

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Source: https://tomesphere.com/paper/PMC12944726