My training in agricultural engineering and soil management has equipped me with strong skills in the analysis, evaluation, and sustainable improvement of natural resources. I have developed a dual scientific and operational expertise that enables me to connect biophysical diagnostics, ecosystem services modeling, and strategic recommendations. This path has prepared me to contribute to the design and monitoring of policies and programs aligned with the Sustainable Development Goals, particularly in the areas of food security, climate resilience, and ecosystem restoration.
Paris-Saclay University (AgroParisTech Campus) — 2024 / 2025
Focus
Soil health assessment.
Integrated analysis of ecosystem services: carbon sequestration, water regulation, fertility, and biodiversity.
Environmental assessment: integration of biophysical, social, and economic dimensions in resource management.
Diagnosis and management of contaminated soils to reduce environmental and health impacts and guide rehabilitation.
Approaches & Tools
Field protocols: sampling design and data traceability.
Statistical analyses and environmental modeling (carbon and water fluxes, uncertainty assessment).
Spatial and digital tools: GIS (QGIS), kriging, spatial indicators, vegetation indices (NDVI).
Soil contamination assessment methods: identification, risk prioritization, and remediation options.
Key Deliverables
Thematic maps and monitoring dashboards for soil quality and ecosystem services.
Assessment reports and strategic briefs on sustainable soil management and restoration.
Values Brought
Reliable indicators for soil monitoring and sustainable management.
Strategic recommendations aligned with international frameworks (SDGs, Paris Agreement, Land Degradation Neutrality Strategy – UNCCD).
Integrated solutions for land restoration, food security, and climate adaptation.
Agricultural Engineering Degree
University of Dschang (Faculty of Agronomy and Agricultural Sciences – FASA) — 2018 / 2023
Focus
Sustainable agricultural systems: agroforestry, integrated management practices, and land evaluation.
Territorial planning: thematic mapping, agroecological zoning, and restoration strategies.
Soil studies and fertility management: pedology, nutrient dynamics, and soil and water conservation.
Approaches & Tools
Field data collection: soil pit descriptions, GPS surveys, participatory diagnostics, and agricultural surveys.
Analyses combining biophysical indicators and socio-economic dimensions.
GIS tools for thematic mapping and agroecological zoning.
Key Deliverables
Comprehensive agronomic assessments: soil analyses, fertility balances, crop productivity, and monitoring of ecosystem services.
Thematic maps and spatial models: agroecological zoning, vulnerability mapping, and land-use planning scenarios.
Technical plans and reference documents: detailed reports, agronomic recommendations, and training materials for the sustainable management of agricultural systems.
Values Brought
Production of reliable quantitative data to characterize soil health and the performance of agricultural systems.
Ability to link agricultural practices with biophysical dynamics to optimize the sustainability and efficiency of farming systems.
Implementation of innovative technical solutions to improve productivity, preserve resources, and strengthen the resilience of agroecosystems.
