CMOS Analog VLSI Design
- Lifetime access
- Certificate of completion
- Anytime Learning
- Learn from Industry Expert
Why enroll
Your instructor
Team EveryEng
Engineer
Mechanical Engineering
Is this course for you?
You should take this if
- You work in Electronics & Instrumentation
- You're a Electrical Engineering / Electronics & Telecommunication professional
- You have 3+ years of hands-on experience in this field
- You prefer self-paced learning you can revisit
You should skip if
- You're new to this field with no prior experience
- You need a different specialisation outside Electrical Engineering
- You need live interaction with an instructor
Course details
Course suitable for
Key topics covered
Course content
The course is readily available, allowing learners to start and complete it at their own pace.
- Introduction to CMOS Analog VLSI Design55 min
- Introduction to CMOS Analog VLSI Design (Continued)63 min
- MOS Fundamentals73 min
- MOS Fundamentals (Continued)85 min
- Basics of MOS Amplifier – Part 172 min
- Basics of MOS Amplifier – Part 263 min
- Basics of MOS Amplifier – Part 366 min
- Cascode Amplifier63 min
- Types of MOSFET Amplifier69 min
- Types of MOSFET Amplifier.64 min
- Differential Amplifier66 min
- Differential Amplifier.74 min
- Current Sources58 min
- Current Sources (Continued)75 min
- Current Sources – Advanced Concepts72 min
- Frequency Response of Amplifier71 min
- Basic of CMOS OPAMP68 min
- OPAMP Design Issues69 min
- OPAMP Design63 min
- OPAMP Design cont.78 min
- Operational Transconductance Amplifier70 min
- Fully Differential Amplifier and Noise67 min
- Noise27 min
- Noise contd.....19 min
Opportunities that await you!
Career opportunities
Why people choose EveryEng
Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.
What learners say about this course
Initially, I wasn’t sure what to expect from this course. Coming from an automotive background, CFD had always felt a bit like a black box beyond post-processing plots. The sections on the Navier–Stokes equations and finite volume discretization helped connect the math to what’s actually happening in the solver. Seeing how grid generation and boundary layer resolution affect results made a lot of sense, especially when thinking about under-hood airflow and thermal management in automotive applications. One area that stood out was the discussion around convergence and stability. A real challenge during the assignments was dealing with a case that simply wouldn’t converge because of poor meshing near walls. That was frustrating, but also realistic. In aerospace projects, especially around external aerodynamics and airfoil analysis, the same issues show up if y+ and turbulence modeling aren’t handled carefully. A practical takeaway was learning a basic checklist before trusting results: mesh quality, residual trends, and sensitivity to boundary conditions. That’s already been applied to a cooling flow study at work. Overall, it felt grounded in real engineering practice.
Valuable content
Good Course
Needed material that would stand up to peer review, and this mostly did, even though it’s a CAD course not code. The AWM bolt assembly chapter where he constrains the lugs and then shows the tolerance stack before adding mates felt like reading a clean PR in a shared repo; you see the intent, not just clicks. I liked the aside on configurations for barrel lengths and how that mirrors feature flags in prod, though the config table example could’ve gone a bit further into naming conventions. There’s a steady comparison of legacy drawings versus parametric workflows that maps well if you live between old arch docs and modern CI, infra, obs, even k8s mental models. wasn't sold on the trigger pack segment since the dimensions stay a bit hand-wavy, but the exploded view timing was right. It’s helped settle some fuzzy calls around when to lock dimensions versus keep them flexible, which tends to bite during PR review.