Strategic Objectives
• Master the chemistry of polymer-specific de-polymerization.
• Optimize steam reforming parameters for maximum hydrogen yield.
• Understand catalyst design to prevent carbon fouling and deactivation.
• Develop scalable engineering solutions for a circular hydrogen economy.
The Core Challenge
Traditional recycling fails to handle complex polymer blends, leaving massive amounts of plastic waste to saturate our environment.
01
The Global Plastic Crisis
02
Hydrogen as an Energy Carrier
03
Polymer Science Fundamentals
04
Thermal Degradation Mechanics
05
Principles of Steam Reforming
06
The Chemistry of De-polymerization
07
Catalysis in Hydrogen Production
08
Heterogeneous Catalyst Design
09
Nickel-Based Catalysts
10
Noble Metal Alternatives
11
Catalyst Deactivation and Coking
12
Reaction Kinetics
13
The Water-Gas Shift Reaction
14
Pyrolysis as a Pre-treatment
15
Fluidized Bed Reactors
16
Gasification vs. Steam Reforming
17
Syngas Composition and Cleanup
18
Energy Balances and Efficiency
19
Life Cycle Assessment
20
Scaling Up: From Lab to Plant
21
Future of Chemical Recycling
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