Can Phosphate-Solubilizing Microorganisms Unlock the Path to Sustainable Amazonian Forest Restoration?
Authors:
- Sidilene Pereira Alves Dos SantosSSSidilene Pereira Alves Dos Santos
- Adamir da Rocha Nina JuniorAJAdamir da Rocha Nina Junior
- Sabrina Silva de Oliveira PinhoSPSabrina Silva de Oliveira Pinho
- Josiane Celerino de CarvalhoJCJosiane Celerino de Carvalho
- Caris Dos Santos VianaCVCaris Dos Santos Viana
- Karen Cristina Pires da CostaKCKaren Cristina Pires da Costa
- Érica MangaraviteÉMÉrica Mangaravite
- Andreia Varmes FernandesAFAndreia Varmes Fernandes
- Mateus Ferreira SantanaMSMateus Ferreira Santana
- Cleverson Diniz Teixeira FreitasCFCleverson Diniz Teixeira Freitas
- José Francisco de Carvalho GonçalvesJosé Francisco de Carvalho Gonçalves
Open Access
- 27 May 2026
- journal article
- review article
- Published by Springer Nature in Current Microbiology
- Vol. 83 (7) , 384
Abstract
Phosphorus (P) availability is a critical constraint for plant growth in tropical ecosystems, primarily due to its low mobility and high fixation by soil colloids. The use of phosphate-solubilizing microorganisms (PSMs) is a sustainable strategy to enhance phosphorus bioavailability, particularly in highly weathered and nutrient-depleted soils. These microorganisms, including bacteria, fungi, actinobacteria (Phylum Actinomycetota), and cyanobacteria, convert insoluble phosphorus into plant-available forms through biochemical pathways such as organic acid production, enzyme secretion, and siderophore release. Although widely studied in agricultural systems, the role of PSMs in forest ecosystems, especially in the Amazon, remains poorly explored. This review synthesizes current knowledge on the diversity, solubilization mechanisms, and applications of PSMs, emphasizing their potential to improve seedling establishment and promote ecosystem resilience in forest restoration efforts. The integration of microbial biofertilization into silvicultural and agroforestry practices may reduce dependence on chemical fertilizers, mitigate environmental impacts, and restore soil fertility in degraded Amazonian landscapes. We underscore the urgent need for further research on locally adapted PSM strains and their functional interactions with native tree species. Ultimately, PSMs represent a promising biotechnological tool for restoring the structure and function of tropical forest ecosystems.Keywords
Funding Information
- Instituto Nacional de Pesquisas da Amazônia
This publication has 118 references indexed in Scilit:
- Amazonian Microorganism Strains Improve Physiological Performance to Oil Palm Seedlings Growth PromoteJournal of Plant Growth Regulation, 2025
- Actinobacteria as Microbial Cell Factories and Biocatalysts in The Synthesis of Chiral Intermediates and Bioactive Molecules; Insights and ApplicationsChemistry & Biodiversity, 2024
- Strategies to Evaluate Microbial Consortia for Mitigating Abiotic Stress in Plants2023
- Diversity and Interactomics of Bacterial Communities Associated with Dominant Trees During Tropical Forest RecoveryCurrent Microbiology, 2021
- Actinobacteria: Basic Adaptation to Harsh Environments2021
- Plant growth-promoting bacteria improve leaf antioxidant metabolism of drought-stressed Neotropical treesPlanta, 2020
- Phosphate-Solubilizing Microbes: Diversity and Phosphates Solubilization Mechanism2018
- Microbial Biodiversity in Agroforestry Systems2017
- Phosphate-Solubilizing Microorganisms: A Critical Review2015
- Mycorrhiza Networks Promote Biodiversity and Stabilize the Tropical Mountain Rain Forest Ecosystem: Perspectives for Understanding Complex Communities2013