Analog layout design

Build a strong foundation in analog IC layout from fundamentals to best practices. Designed to bridge academic knowledge with industry expectations.

Course Overview

Analog Layout Design is a specialized and critical domain in VLSI engineering that focuses on translating analog circuit schematics into robust, manufacturable silicon layouts. This course provides in-depth, industry-oriented training on analog layout methodologies, physical design principles, and best practices followed in real semiconductor projects.

The program emphasizes hands-on learning, layout thinking, and silicon-proven techniques to help learners bridge the gap between theory and industry expectations.

What you will learn

    Introduction to IC Layout Design

    • Overview of the complete VLSI design flow
    • Role of layout in the IC design and manufacturing process
    • Key differences between Analog and Digital design methodologies

    Unix / Linux Fundamentals

    • Linux file system structure and navigation
    • Essential file and directory operations
    • Text viewing and basic editing commands

    Semiconductor Physics

    • Basic atomic structure and charge carriers (electrons & holes)
    • Intrinsic and extrinsic semiconductors
    • Doping concepts: P-type and N-type materials
    • PN junction fundamentals and depletion region
    • Electrical characteristics relevant to IC design

    CMOS Fabrication Process

    • Overview of CMOS technology and process flow
    • Wafer preparation and oxidation
    • Photolithography and mask alignment concepts
    • Etching, diffusion, and ion implantation
    • Metal layers, interconnects, and passivation

    MOSFET Operation & I-V Characteristics

    • Regions of operation: Cutoff, Linear, Saturation
    • Drain current characteristics
    • Impact of device sizing on performance

    Second-Order Effects

    • Body effect and channel length modulation
    • Velocity saturation and DIBL
    • Impact on analog layout decisions

    Basic Electrical Laws

    • Ohm’s Law and its practical implications
    • Kirchhoff’s Current Law (KCL)
    • Kirchhoff’s Voltage Law (KVL)

    Passive Components

    • Resistors: types and layout considerations
    • Capacitors: matching and parasitics
    • Inductors: basics and limitations in ICs

    Active Components

    • MOSFET operation in analog circuits
    • BJT fundamentals and use cases
    • Comparison between MOSFETs and BJTs

    Current Mirror & Differential Pair

    • Basic current mirror operation
    • Differential pair working principles
    • Layout impact on performance

    Matching Techniques

    • Importance of device matching
    • Common centroid and inter-digitated layouts
    • Mismatch sources and mitigation

    Parasitic & Reliability Effects

    • Parasitic resistance and capacitance
    • Antenna effect and prevention techniques
    • Latch-up causes and protection
    • Shielding concepts in analog layout
    • STI, LOD, WPE effects

    ESD, EM & IR Effects

    • Electrostatic discharge (ESD) basics
    • Electromigration (EM) failures
    • IR drop analysis and layout impact

    IC Packaging Basics

    • Introduction to IC packaging
    • Common package types and use cases
    • Package impact on performance and reliability

    Career Preparation

    • Industry-ready resume building
    • Mock technical interviews
    • Interview feedback and improvement guidance

    Hands-on Layout Exercises

    • Logic gates layout
    • Level shifter implementation
    • Operational amplifier layout
    • Resistor ladder network
    • Bandgap reference circuit
    • LDO regulator layout

Who Can Join This Course

  • Fresh graduates aspiring to enter the VLSI / Semiconductor industry
  • Engineering students (B.E / B.Tech / M.E / M.Tech)
  • Working professionals looking to upskill or switch to Analog Layout roles
  • Physical design engineers aiming to move into the analog domain
  • Faculty and researchers seeking practical industry exposure

Eligibility Criteria

  • Final year B.E/B.Tech/M.E/M.Tech students with ECE/EEE background.
  • Candiates graduated between 2020 to 2025 can also apply.

Course Duration & Format

Duration 4 – 6 months (customizable based on batch)
Mode Instructor Led Training (Offline)
Sessions Theory + hands-on practical labs
Access Real-time guidance and doubt-clearing sessions

Certification

Participants will receive a Course Completion Certificate upon successful completion of the program.