LCPP
The Laboratory of Computational Plasma Physics (LCPP) in the Department of Nuclear, Plasma, and Radiological Engineering (NPRE) at the University of Illinois Urbana Champaign is dedicated to advancing the frontiers of plasma physics and plasma chemistry through cutting-edge theoretical approaches and state-of-the-art computational modeling.
Our Mission
At LCPP, our mission is to develop and refine predictive simulation tools capable of tackling the complex challenges posed by fusion energy systems and industrial plasma applications. We aim to deepen scientific understanding and enable innovations that can drive progress in clean fusion energy, advanced manufacturing, and materials science in extreme environments.
Our Research
Our research work spans a diverse array of applications.
Plasma Material Interactions in Fusion Energy Systems: We develop advanced and high-fidelity models to understand and optimize the behavior of hot plasmas interacting with Plasma Facing Components at the edges of magnetic fusion reactors, crucial for achieving sustainable and efficient fusion energy.
Industrial Plasmas: Our research helps in the design and enhancement of industrial processes that rely on plasma technologies, from semiconductor manufacturing to materials processing.
Material Science under Extreme Environments: Studying the interaction of plasmas with materials exposed to extreme conditions, which is vital for developing durable and efficient materials for high-stress applications.
Our Approach
High-Performance Computing: We utilize state-of-the-art computing to perform large-scale simulations that provide detailed insights into plasma behavior.
Multi-Physics Multi-Scale Models: Integrating various physical processes and scales into cohesive models to capture the complexity of real-world plasma systems.
Artificial Intelligence: Applying AI techniques to develop reduced-order and/or surrogate models, enhancing the efficiency and accuracy of simulations and enabling predictive capabilities.
Our Team
Through interdisciplinary research and collaboration, LCPP seeks to push the boundaries of plasma science and contribute to solutions with lasting global impact. The team brings together expertise in plasma theory, computational modeling, and high-performance computing, creating a dynamic and interdisciplinary research environment. We are committed to fostering an inclusive and supportive atmosphere where everyone can thrive.
Collaborations and Impact
We actively collaborate with academic institutions, national laboratories, and industry partners to ensure our research has real-world impact. Our work not only contributes to scientific knowledge but also supports technological advancements in energy, manufacturing, and materials science.
Join Us
We are always looking for motivated individuals to join our team. Whether you are a prospective student, researcher, or collaborator, we invite you to explore the opportunities at the Laboratory of Computational Plasma Physics. Together, we can drive innovation and make significant contributions to the field of plasma physics.
Research Methods
- Boltzmann solvers using Continuum and Statistical Methods
- Particle-in-Cells optimized for High-Performance Computing
- Multi-species plasmas with complex Chemistry evolution
- Monte Carlo methods for Plasma Transport
- Ion-matter interaction, with focus on material erosion, ion implantation,
and back-scattering during plasma exposure - Multi-physics and multi-scale Code Coupling
Engineering Applications
- Plasma Surface Interactions
- Edge Plasmas (tokamaks, stellarators)
- Laser ablated plasmas
- Plasma Sources (Helicons, ICPs, CCP)
- Plasmas for Advanced Manufacturing
- Advanced Plasma Thrusters