VLSI Design Flow for Program Managers
VLSI Design Flow for Program Managers – Semiconductor Project Management Training The VLSI Design Flow for Program Managers course is designed to help program managers and technical leaders understand the complete semiconductor chip development lifecycle.
- 35 HoursCourse Duration
- 55 SessionsRecorded & Live
- 4.6/5Learner Rating
- 3000Enrolled Learners
Course Overview
About Course
VLSI Design Flow for Program Managers – Semiconductor Project Management Training
The VLSI Design Flow for Program Managers course is designed to help program managers and technical leaders understand the complete semiconductor chip development lifecycle. The course introduces the end-to-end ASIC and SoC design flow from system specification to silicon tape-out, enabling program managers to effectively manage complex VLSI product development programs.
Participants gain strong understanding of how different engineering teams such as RTL designers, verification engineers, physical design engineers, timing engineers, and validation teams collaborate during the chip development lifecycle. The program focuses on design milestones, cross-team coordination, risk management, tape-out planning, and semiconductor project execution.
Course Duration & Structure
Foundation Phase – 2 Weeks
Semiconductor fundamentals and VLSI design flow overview
Core Phase – 3 Weeks
Frontend and Backend design flow understanding
Management Phase – 3 Weeks
Semiconductor project planning and program management
Total Duration: 6–8 Weeks Industry-Oriented Training
Semiconductor & VLSI Fundamentals
- Introduction to semiconductor technology
- CMOS fundamentals and integrated circuits
- ASIC vs SoC design concepts
- Overview of semiconductor product development
- Technology nodes and chip manufacturing process
- Basic architecture of digital chips
Complete ASIC Design Flow Overview
- System specification and chip architecture planning
- RTL design and hardware description concepts
- Functional verification and simulation methodology
- Design synthesis and logic optimization
- Physical design implementation flow
- Static Timing Analysis (STA) overview
- Physical verification (DRC / LVS)
- Design signoff and tape-out preparation
Frontend Design Flow
- Chip architecture and microarchitecture planning
- RTL development and coding methodologies
- Functional verification strategies
- Design simulation and debugging
- Design for Testability (DFT) concepts
- Verification closure and validation
Backend Implementation Flow
- Logic synthesis and gate-level design
- Floorplanning and chip planning concepts
- Standard cell placement and optimization
- Clock Tree Synthesis (CTS) overview
- Routing strategies and congestion analysis
- Timing closure and power optimization concepts
- Physical verification and signoff methodology
Semiconductor Manufacturing & Tape-Out
- Wafer fabrication process overview
- Technology nodes and advanced chip manufacturing
- Packaging and chip assembly process
- Post-silicon validation and testing
- Product qualification and release
VLSI Project & Program Management
- Semiconductor project lifecycle management
- ASIC design milestone planning
- Engineering resource allocation strategies
- Cross-functional team coordination
- Risk management in chip development
- Tape-out schedule tracking
- Design review and milestone management
- Stakeholder communication and reporting
Training Modes Available
- Classroom Training
- Live Online Instructor-Led Training
- Weekend Batches
- Corporate Training Programs
- Executive Learning Programs
Flexible training modes allow professionals and managers to learn the VLSI design lifecycle and semiconductor project execution without interrupting their professional responsibilities.
Who Should Enroll?
- Program Managers in semiconductor industry
- Project Managers handling ASIC development programs
- Engineering Managers managing VLSI teams
- Technical Leads transitioning to program management roles
- Professionals working with chip design and semiconductor products
Career Benefits
- Strong understanding of semiconductor product lifecycle
- Ability to manage complex ASIC design programs
- Improved coordination between design and verification teams
- Better project planning and tape-out readiness tracking
- Leadership skills for VLSI engineering program delivery
This program equips managers with the technical awareness required to successfully lead ASIC and SoC development programs in semiconductor organizations, ensuring efficient project execution and successful silicon delivery.
Detailed Syllabus
9 modules- Electronics Systems and VLSI Flow
- Understanding Electronic Systems
- Factors Driving VLSI Design Flow
- Significance of Transistors in Hardware
- VLSI Process Variations (PVT)
- ASIC vs FPGA Overview
- Revision Session and Basic Tools Overview
- System on Chip (SoC) Architecture
- Octa Core Processor Architecture
- Registers and Data Storage Concepts
- Memory Access Latency
- USB Devices and Hardware Interfaces
- Hardware Communication Protocols
- ASIC Team Distribution and Roles
- VLSI Frontend Domain Overview
- VLSI Backend Domain Overview
- Tools Used in ASIC Design Flow
- Working with Industry Tools
- RTL Integration Flow
- Clock Domain Concepts
- Functional Verification
- Lint Analysis
- RTL Simulation Concepts
- Simulation Tool Explanation
- TCL Coding for Design Automation
- Synthesis Fundamentals
- Synthesis Design Flow
- Static Timing Analysis (STA)
- PVT Corner Analysis
- Writing SDC Constraints
- Timing Violations and Debugging
- Power Analysis in VLSI
- Power Verification Concepts
- UPF (Unified Power Format)
- Retention Logic
- Low Power Design Methodologies
- Introduction to Design for Testability
- DFT Concepts in ASIC
- Scan Chain Operation
- DFT Implementation Flow
- Measurement and Testing Demonstration
- Placement Concepts
- Placement Optimization
- Checks After Placement
- Clock Tree Synthesis (CTS)
- Routing in Physical Design
- Design Rule Check (DRC) Flow
- FPGA Design Flow
- Analog Mixed Signal (AMS) IC Design
- Post Layout Timing Analysis
- Final Design Signoff Concepts
Session-wise Content
55 sessions · 31h 37m- 1Electronics systems and vlsi flow18m
- 2Usb devices18m
- 3Soc architecture26m
- 4Understanding systems19m
- 5Revision,ms office24m
- 6protocols47m
- 7Registers31m
- 8Soc,octa core processors30m
- 9Dft,use case of driver17m
- 10vlsi,pvt18m
- 11ASIC/FPGA49m
- 12Power verification22m
- 13ASIC team distribution32m
- 14Asic Design flow38m
- 15Factors driving vlsi flow20m
- 16Memory acess latency34m
- 17Power39m
- 18Upf,fetention logic22m
- 19Vlsi front end domain30m
- 20Clock Domain,rtl integeration flow25m
- 21Functional verification,lint anylsis49m
- 22VLSI back end domain flow31m
- 23Place and route17m
- 24Tools used in asic design flow30m
- 25Significance of transistor ih HW16m
- 26FPGA design flow49m
- 27TLC coding19m
- 28Smulation (tool explination)27m
- 29STA,PVT corner51m
- 30Lint29m
- 31UPF41m
- 32SYNTHESIS35m
- 33Working with tool34m
- 34SYNTHESIS flow1h 32m
- 35DFT33m
- 36SCAN chain operation26m
- 37measure so explation demonstration1h 28m
- 38PD flow27m
- 39steps29m
- 40what is floorplan57m
- 41Port placement28m
- 42Macro placement guidelines44m
- 43Physical only cell30m
- 44power planning48m
- 45ASIC PD flow44m
- 46p1 continution38m
- 47p2 continution, what is placement34m
- 48checks after placements53m
- 49clock tree synthesis1h 3m
- 50routing42m
- 51DRC flow29m
- 52STA25m
- 53Writing Out SDC35m
- 54Violations15m
- 55AMS IC DESIGN30m
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What Our Students Say
Frequently Asked Questions
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Physical Design is the backend implementation stage of ASIC design where RTL netlist is converted into a manufacturable layout (GDSII). It includes floorplanning, placement, clock tree synthesis, routing, timing closure, and signoff verification.