-Semiconductor industry history -Semiconductor physics review
-Process flow for a CMOS device
- Crystallography review (Bravais lattice, crystalline structures)
-Silicon lattice
- Defects and thermodynamics of point defects
-Mono-crystalline silicon growth (CZ)
-Silicon wafer fabrication process
- Silicon oxide structure
- Deal and Grove model
-Oxidation kinetic dependence on substrate orientation and doping
- Oxidation and point defects - Charged defects in silicon oxide and CV measurements - Advanced silicon oxidation techniques - High-k dielectrics
- Dopant diffusion in silicon
- Fick’s law - Analytical solutions to second Fick’s law (Gaussian and ERFC profiles)
- Correction to Fick’s law - Diffusion and point defects
- Ion implanter structure - Implanted concentration profiles, channeling effects - Nuclear and electronic ion stopping - Crystallographic damage and TED
- Lithogrpahy basics concepts and main lithographic system architectures
-Light sources
-Reticles
-Photo resist
-Registration
- Projection lithography;
- Resolution and depth of focus
-Advanced applications (immersion lithography, EUV, e-beam, self-aligned double patterning, self assembling block-co-polymers)
· Thin films deposition: CVD and PVD techniques
-Fluid dynamics basics -APCVD and LPDCVD basic models
-Plasma-assisted CVD techniques
-Evaporation -Sputtering
-Wet etching quick overview -Plasma ecthing * Main properties * Plasma etchers * Etch chemistries * Basic models
- Local interconnects: silicides and salicides - Contacts *Ohmic vs rectifying behavior *Main contact technologies - Dielectrics: oxides and low-K materials - Interconnects: subtractive and damascene approach
· NOR flash memory process flow
Text book
James D. Plummer, Michael D. Deal, Peter B. griffin, Silicon VLSI Technology. Fundamentals, Practice and Modeling, Prentice Hall, 2000, ISBN: 0130850373
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