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The Institute of Bio- and Geosciences – Plant Sciences (IBG-2) at Forschungszentrum Jülich invites applications for a doctoral researcher to relate root dynamics to above-ground physiological and phenotypical measures. The project combines controlled conditions with field experiments to study how photosynthesis and carbon allocation couple to root growth over time.
You will use imaging (MRI, PET) and non-invasive methods to track plant traits and contribute to functional-structural plant models,
Plant roots are essential for water and nutrient acquisition and play a key role in how crops respond to environmental stress. Yet, because roots are hidden in the soil, their development and activity remain difficult to observe – particularly under field conditions.
Advances in plant phenotyping, on the other hand, allow us to characterize above- and belowground plant structure and function with increasing temporal resolution. Physiological measurements provide information about photosynthetic carbon assimilation, while sensor-based phenotyping captures dynamic changes in plant growth and stress responses.
To what extent can available above-ground traits be related to root structure and function?
At the Institute of Bio- and Geosciences – Plant Sciences (IBG-2) at Forschungszentrum Jülich, we are looking for a doctoral researcher to address this question within the PhenoRob – Robotics and Phenotyping for Sustainable Crop Production – research environment.
The aim of your PhD project is to relate root dynamics to above-ground physiological and phenotypical measures and traits.
You will investigate how photosynthesis, carbon allocation, shoot development and root growth are connected over time and how these relationships change in response to environmental conditions. To achieve this, you will combine experiments done under controlled conditions with field experiments.
Complementary experiments will provide direct and non-invasive information about shoot and root structure and function. Using advanced imaging approaches such as Magnetic Resonance Imaging (MRI) and Positron Emission Tomography (PET), you will follow root development and physiological processes over space and time. You will also measure photosynthetic performance to help reveal how carbon assimilation and allocation are related to source-sink dynamics and subsequent root and shoot growth.
By combining these complementary datasets, you will investigate whether measurable changes above ground can serve as indicators – and ultimately predictors – of dynamic processes in the hidden root system.
In addition to exciting tasks and a collegial working environment, we offer you much more.
We welcome applications from people with diverse backgrounds, e.g. in terms of age, gender, disability, sexual orientation / identity, and social, ethnic and religious origin. A diverse and inclusive working environment with equal opportunities in which everyone can realize their potential is important to us.
Tagged as: Life Sciences