Modeling extreme-ultraviolet emission from laser-produced plasma using particle-in-cell method

Keyphrases

• Particle-in-cell Simulation 100%
• Extreme Ultraviolet Emission 100%
• Laser Plasma 100%
• Particle-in-cell Method 100%
• Opacity 33%
• Semiconductor Manufacturing 33%
• Laser Heating 33%
• Relativistic Particles 33%
• Ionization Process 33%
• State of Charge 33%
• Thermalization 33%
• Kinetic Model 33%
• Self-heating 33%
• Dense Plasma 33%
• Hydrodynamic Approach 33%
• Energy Transport 33%
• Weighted Oscillator Strength 33%
• Heating Energy 33%
• Manufacturing Devices 33%
• Ultrafast Electron Dynamics 33%
• Particle-in-cell Code 33%
• Tin Ion 33%
• State-Varying 33%
• Extreme Ultraviolet Source 33%
• Integrated numerical Model 33%

Engineering

• Cell Model 100%
• Light Source 50%
• Numerical Model 50%
• Hydrodynamics 50%
• One Dimensional 50%
• Semiconductor Manufacturing 50%
• Laser Heating 50%
• Ultraviolet Light 50%
• Kinetic Model 50%
• Energy Transport 50%
• Heating Energy 50%
• Charged State 50%
• Oscillator 50%

Physics

• Ultraviolet Emission 100%
• Blood Plasma 100%
• Laser Heating 50%
• Light Source 50%
• Numerical Model 50%
• Dense Plasmas 50%
• Oscillator Strength 50%