Strategic Objectives
• Master the fundamental kinetics of organic bond scission.
• Calculate precise activation energies for complex polymer chains.
• Optimize deconstruction phases to maximize high-value intermediate recovery.
• Predict the behavior of diverse feedstocks under extreme thermal stress.
The Core Challenge
Traditional chemical engineering often treats biomass as a black box, leading to inefficient reactors and unpredictable yields during thermal degradation.
01
Foundations of Chemical Kinetics
02
The Geometry of Dissociation
03
Energy Barriers and Thresholds
04
The Arrhenius Equation
05
Bond Dissociation Energy
06
Transition State Theory
07
Thermodynamics of Reaction
08
Free Radical Mechanisms
09
Chain Reaction Dynamics
10
Pyrolysis Kinetics
11
Lignin Deconstruction
12
Cellulose Thermolysis
13
Hemicellulose Volatilization
14
Gasification Intermediates
15
Enzymatic vs. Thermal Deconstruction
16
Thermal Gravimetric Analysis
17
Mass Transfer Limitations
18
Heat Transfer in Porous Solids
19
Computational Kinetic Modeling
20
Catalytic Cracking Mechanisms
21