
This video introduces the course content and shows the initial curriculum of the course
This video introduces the different applications of micro and nano fabrication techniques for different application domains: Silicon photonics (SiPh), micro/nano-electro-mechanical systems (M/NEMS), and integrated circuits (ICs) industry.
This short lecture introduces concepts of Moore's law, scaling of transistors, and the definition of technology nodes. It highlights the significance of advancing micro and nano fabrication techniques.
This video provides a very generic overview for the microfabrication processing steps.
This video introduces the concept of the cleanroom, how they are classified, and the safety steps to get inside the cleanroom.
This video explains why Silicon is a perfect material system for different technologies: Silicon photonics (SiPh), micro-electro-mechanical systems (MEMS), and integrated circuits (ICs) industry.
This video explains the basics of lithography systems and focuses on the state of art deep ultraviolet photolithography process.
This lecture explains the current techniques used for resolution enhancement, including: optical proximity correction (OPC), Off-axis illumination (OAI), Phase-shift masking (PSM), Immersion lithography, double patterning, and spacer etching.
This video introduces Extreme UV lithography, the most promising next-generation lithography techniques, highlighting its pros and cons.
This video highlights the importance of oxidation process and explains the concept of thermal oxidation
Following the last lecture, this video shows the alternative way of depositing oxide layers through chemical vapor deposition, and briefly compares thermally grown and deposited oxide layers.
This lecture highlights the importance of doping. Then, it explains the basic principles and doping profile of the diffusion process
In this lecture, the ion implantation technique is explained. Followed by a comparison between diffusion and ion implantation.
This video explains the etching process and major figures of merits. Followingly, wet etching is explained.
This video explains the basic concept of dry etching with a special focus on deep reactive-ion etching (DRIE)
In this module, we are introducing different deposition techniques. This video focuses on chemical vapor deposition and the usage of plasma to compensate for the high temperature.
This video explains the basic idea behind atomic layer deposition (ALD), and why it has superior control over the film thickness
This short video explains the basic principle of sputtering process and sputtering yield
This video explains the idea behind thermal evaporation and how it can be used in the deposition of metals.
In this video we have reviewed the different deposition techniques, and investigated the practicality of each and their common applications
This video explains the meaning and significance of epitaxial growth
This video introduces the approach used in depositing different metals and some special flows as Damascene process and Silicidation. Additionally, practical aspects of metalization as electromigration and Aluminum spiking are explained.
This lecture introduces the most common planarization technique, which is chemical-mechanical polishing (CMP)
This video shows how the different microfabrication methods are integrated into a single flow to make a CMOS inverter.
This video introduces the idea of process flow simulation, and we went through the simulation of fabricating Si PN junction. The tool used in Simulation is Synopsis TCAD, mainly Sprocess.
Embark on a fascinating journey into micro and nanofabrication techniques. Designed as an accessible, insightful introduction, this course unveils the fundamental principles behind cleanroom processes—shedding light on their real-world applications, advantages, and limitations, all without getting bogged down in complex mathematical intricacies.
Who Is This Course For?
This course caters to a diverse audience of students, researchers, and engineers passionate about:
IC Design (Both Digital and Analog)
MEMS Design (Micro-Electro-Mechanical Systems)
Silicon Photonics (SiP) and Quantum Devices
Whether you're a budding IC designer looking to understand how your layouts are physically manufactured, or an experienced engineer seeking to expand your skill set into nanotechnology, this course provides the practical foundation you need.
What You Will Learn
Master the entire process flow through dedicated, standalone modules:
Patterning Techniques (Lithography): The foundation of transferring geometry to silicon.
Oxidation & Deposition: Growing and depositing high-quality thin films.
Etching: Understanding wet, dry, isotropic, and anisotropic material removal.
Doping: Modifying electrical properties via diffusion and ion implantation.
Metallization: Creating robust electrical contacts and interconnects.
Process Integration & Simulations: Learning how individual steps combine using industry-standard TCAD workflows.
Why Enroll?
Beyond theory, we focus heavily on practical design considerations. You will bridge the gap between abstract device design and actual physical fabrication, giving you a holistic understanding of the technologies shaping the future of semiconductors.
Join us today and gain the expertise needed to navigate the intricate world of micro and nanofabrication with confidence and clarity!