Strategic Objectives
• Master the mathematical foundations of neutron cross-section energy dependence.
• Optimize target geometry to maximize transmutation rates and minimize waste.
• Navigate complex resonance interference effects with advanced computational methods.
• Bridging the gap between theoretical particle transport and practical engineering.
The Core Challenge
In dense transmutation targets, resonance self-shielding creates non-linear absorption rates that can derail computational predictions and reactor efficiency.
01
The Fundamentals of Neutron Interaction
02
The Nature of Nuclear Resonance
03
Mechanics of Transmutation
04
Defining the Self-Shielding Effect
05
The Breit-Wigner Formula
06
Neutron Moderation and Slowing Down
07
The Boltzmann Transport Equation
08
Doppler Broadening in Targets
09
The Method of Collision Probabilities
10
Multi-Group Energy Structures
11
The Wigner Rational Approximation
12
Monte Carlo Methods in Transport
13
Resonance Interference Effects
14
Target Geometry Optimization
15
Material Science of Transmutation Targets
16
The Role of Evaluated Nuclear Data Files
17
Sensitivity and Uncertainty Analysis
18
Coupled Physics: Heat and Flux
19
Computational Code Verification
20
Advanced Transmutation Systems
21