Skip to content

Research

Research at SOPHYA

Understanding plant-microbiome interactions to develop resilient and sustainable agricultural systems.

SOPHYA brings together expertise in microbiology, plant physiology, agronomy, and computational modeling to explore the complex interactions between soil microorganisms, cultivated plants, and environmental conditions. By integrating biological observations with computational modeling, SOPHYA seeks to generate new knowledge and develop tools that can support more resilient crop management strategies.

Scientific approach

The research program adopts an integrative systems approach, considering plants, soil microorganisms, and environmental factors as interconnected components of agricultural ecosystems.

To investigate these relationships, SOPHYA combines several complementary research strategies:

  • field experiments conducted under real agricultural conditions
  • molecular characterization of microbial communities associated with soils and plants
  • plant physiological measurements
  • advanced computational modeling and data integration.

This interdisciplinary approach enables a deeper understanding of how microbiomes contribute to plant health, crop productivity, and ecosystem resilience.

Research axes

The research program is structured around four complementary axes, addressing both fundamental scientific questions and practical applications for agriculture.
Axis 1 – Microbiome and biocontrol
Research focuses on identifying soil and plant-associated microorganisms capable of enhancing plant nutrition, suppressing pathogens, and improving tolerance to environmental stresses. By combining sequencing technologies, microbial isolation, and functional assays, SOPHYA aims to uncover microbial functions that can support sustainable crop production.
Axis 2 – Microbiome-plant interactions under climate change-related stresses
This axis investigates how environmental factors influence plant physiology and associated microbial communities. Multi-site field experiments integrate climatic, agronomic, and biological datasets to better understand how microbiomes respond to environmental variability and climate-related stresses.
Axis 3 – Predictive tools for resilient and sustainable agriculture
Large datasets generated through experimental work are integrated into predictive models designed to simulate microbiome dynamics and plant responses. Machine learning and statistical modeling approaches are used to anticipate crop adaptation strategies and guide sustainable agricultural management.
Axis 4 – Valorization and transfer
In addition to scientific research, SOPHYA promotes the communication and application of research outcomes. Results are disseminated through scientific publications, conferences, workshops, and collaborative events involving researchers, students, and agricultural stakeholders.

Research infrastructure and collaboration

SOPHYA relies on the complementary expertise and infrastructure of its partner institutions. The project integrates field experiments, laboratory analyses, and advanced computational approaches, supported by collaborations with specialized research platforms.
Key partners include:
University of Lille – UMR 1158 BioEcoAgro
Alexandru Ioan Cuza University of Iași – BioActive Research Group
Florimond Desprez
Bilille platform (bioinformatics, biostatistics, and bioanalysis)
• Romanian National Informatics Society

Together, these partners provide the interdisciplinary expertise and technological resources necessary to address complex questions related to plant-microbiome interactions.

Education and training

SOPHYA also serves as a platform for training students and early-career researchers in interdisciplinary approaches to plant and microbiome research.
The project provides opportunities for:
• Master’s and PhD research projects
• student internships
• international mobility between partner institutions
• joint supervision of doctoral students.
Existing Erasmus+ exchange agreements facilitate mobility for students and staff, while future initiatives may include thematic workshops and training events dedicated to microbiome research and sustainable agriculture.

Timeline

The project is planned over several years, combining field experimentation, laboratory analyses, and data integration.
2025
Project organization, preparation of experimental systems, recruitment of PhD students, and planning of student internships.
2026-2027
Implementation of multi-site field experiments, microbiome analyses, and data collection.
2028
Integration of multi-year datasets, development of predictive envirotyping models, and dissemination of scientific results.

Scientific and societal impact

SOPHYA contributes to advancing the understanding of plant-microbiome interactions in agricultural systems and to developing innovative strategies for crop management. By investigating the functions of microbial communities in soils and plant-associated environments, the project aims to support agricultural practices that enhance crop resilience, improve resource efficiency, and promote more sustainable farming systems.
Beyond its scientific contributions, SOPHYA also strengthens international collaboration between France and Romania, supports the training of young researchers, and fosters innovation in the fields of agriculture, microbiology, and environmental sciences.