Strategic Objectives
• Decode the caloric potential of diverse waste feedstocks.
• Master the mathematical modeling of gasification and pyrolysis.
• Optimize reactor designs for maximum energy recovery efficiency.
• Bridge the gap between raw chemical data and industrial application.
The Core Challenge
While robotic sorting has perfected feedstock recovery, the complex chemical transition from waste to high-value energy remains a 'black box' for many engineers and researchers.
01
The Chemistry of Waste
02
Refuse-Derived Fuel
03
Principles of Thermochemistry
04
The Pyrolysis Path
05
Gasification Mechanics
06
Chemical Kinetics
07
The Role of Syngas
08
Hydrothermal Carbonization
09
Plasma Gasification
10
Computational Fluid Dynamics
11
Stoichiometry of Combustion
12
The Torrefaction Process
13
Bio-oil Synthesis
14
Catalytic Conversion
15
Mass and Energy Balance
16
Gasification Feedstock Flexibility
17
Char and Carbon Sequestration
18
Reaction Engineering
19
Exergy Analysis
20
Emissions Modeling
21