Strategic Objectives
• Understand the fundamental thermal decomposition of complex precursors.
• Master the boundary layer dynamics that dictate film thickness and quality.
• Design advanced ligands to control reaction volatility and stability.
• Differentiate and optimize chemical pathways over physical deposition methods.
The Core Challenge
Traditional material deposition often fails to provide the uniformity and purity required for next-generation technology.
01
Foundations of CVD
02
Thermodynamics of Deposition
03
Chemical Kinetics and Rate Laws
04
The Boundary Layer Phenomenon
05
Mass Transfer Dynamics
06
Precursor Chemistry
07
Ligand Design and Coordination
08
Thermal Decomposition Pathways
09
Organometallic Chemistry in CVD
10
Surface Adsorption and Desorption
11
Nucleation and Film Growth
12
Heat Transfer in CVD Reactors
13
Fluid Dynamics and Flow Regimes
14
Catalysis in Chemical Vapor Deposition
15
Plasma-Enhanced Kinetics
16
Atomic Layer Deposition (ALD)
17
Vapor Pressure and Volatility
18
Stoichiometry and Film Composition
19
Activation Energy and Arrhenius Behavior
20
Reactor Design and Scaling
21