Synchrotron X-Ray Imaging
Synchrotron X-ray imaging offers unparalleled insights into the atomic and molecular structure of materials and biological systems. This cutting-edge technique utilizes highly focused X-ray beams generated by synchrotron light sources, allowing researchers to achieve resolutions down to the atomic scale. Its applications span numerous fields, from unveiling the internal mechanisms of batteries and catalysts to advancing medical imaging and biomaterial development. With its ability to provide non-destructive, high-resolution visualization, synchrotron X-ray imaging is revolutionizing how we understand and design complex systems.
Neutron Scattering
Neutron scattering is a powerful tool for probing the dynamics and interactions of atoms and molecules within materials. Unlike other techniques, neutrons penetrate deeply into samples, revealing structural and dynamic information that is critical for studying energy storage systems, complex polymers, and biological macromolecules. This method is particularly valuable for analyzing light elements, such as hydrogen, and for observing subtle magnetic properties. By uncovering the behavior of materials under various conditions, neutron scattering drives breakthroughs in sustainable technologies and advanced manufacturing.
Advanced Electron Microscopy
Advanced electron microscopy allows researchers to visualize and manipulate materials at the nanoscale with extraordinary precision. Using electron beams instead of light, this technique achieves resolutions far beyond conventional imaging methods, enabling detailed exploration of atomic structures and defects. It is essential for innovations in nanotechnology, from designing new materials for semiconductors to developing biocompatible surfaces. Beyond imaging, advanced electron microscopy also facilitates in situ experiments, providing real-time insights into dynamic processes and material transformations. This versatility makes it a cornerstone of modern scientific discovery.
Research Excellence
Nextstep exemplifies research excellence through its integration of state-of-the-art analytical techniques, interdisciplinary approaches, and a commitment to addressing global challenges. The programme draws on the strengths of its hosting institutions - ESRF, ILL, and eDREAM - renowned for their pivotal roles in advancing scientific discovery.
This unparalleled research environment ensures that Nextstep fellows are not only trained in advanced techniques but also positioned to become leaders in science, innovation, and societal progress.
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World-Class Facilities
At ESRF, cutting-edge synchrotron beamlines enable atomic-level imaging, while ILL’s neutron scattering instruments probe material dynamics with unparalleled depth. eDREAM’s advanced electron microscopy facilities offer nanoscale insights essential for transformative innovations. Together, these infrastructures form a powerhouse for groundbreaking research.
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Interdisciplinary Impact
By combining techniques like synchrotron X-rays, neutron scattering, and electron microscopy, Nextstep fosters interdisciplinary research with applications in health, energy, environmental sciences, and digital industries. This unique blend of expertise addresses complex scientific questions while paving the way for real-world solutions.
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Commitment to Innovation
Nextstep’s research ecosystem promotes collaboration among academia, industry, and public stakeholders, bridging the gap between scientific discovery and practical applications. The programme’s emphasis on sustainable development aligns with Horizon Europe’s goals, ensuring its outputs resonate on a global scale.
Areas of Interest
Current and emerging sustainable development and innovation challenges associated with four of the six Pillar clusters of Horizon Europe.
Health
In the Health cluster, Nextstep doctoral candidates will leverage advanced analytical techniques, including X-ray tomography and electron microscopy, to deepen understanding of human diseases and improve disease modeling. Research projects focus on high-contrast, multi-scale imaging to observe biological structures at unprecedented levels of detail. By applying innovative imaging methods to study diseases, candidates will contribute to advancements in medical research and the development of effective treatments, positioning Nextstep as a driving force in health-focused innovation.
Climate, Energy and Mobility
Nextstep's Climate, Energy, and Mobility cluster focuses on reducing environmental impact and promoting sustainable energy solutions. Doctoral candidates will investigate topics like lowering CO₂ emissions through the development of low-carbon cement and other sustainable materials. Utilizing neutron imaging and in-operando analysis, candidates will study new processes to optimize energy use and reduce carbon footprints. This research supports Europe’s green transition goals, equipping candidates with the expertise to address pressing climate and energy challenges.
Digital, Industry, and Space
The Digital, Industry & Space cluster within Nextstep enables candidates to explore advanced manufacturing processes and materials, employing cutting-edge neutron, X-ray, and electron microscopy techniques. Research in this area addresses critical topics such as defect analysis in additive manufacturing, enhancing the precision and reliability of industrial applications. Through interdisciplinary approaches, candidates will tackle industry-specific challenges, contributing to the technological advancement of digital and space industries and fostering the development of sustainable and innovative production methods.
Food, Bioeconomy, Natural Resources, Agriculture, and Environment
In the Food, Bioeconomy, Natural Resources, Agriculture, and Environment cluster, Nextstep projects aim to enhance sustainable agricultural practices and resource management. Candidates will conduct research on topics such as the efficient use of nano-fertilizers and bio-based recycling processes. Analytical techniques, including X-ray fluorescence mapping and neutron imaging, will be employed to optimize the absorption processes and develop sustainable agricultural methods. This work supports innovation in food security and environmental conservation, aligning with Europe’s bioeconomic and sustainability objectives.