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Advance RISC-V Processor Design & Verification Program
Master RISC-V processor design & verification — instruction encoding, privileged CSRs, 5-stage pipeline hazards, Wally, Spike & RISC-V DV — Nation Innovation's hands-on 6-week program with 10 lab-based projects and placement support.
Meet Your Instructor

Mr. Gaurav Verma
Expertise in RISC-V Processor Verification | VLSI Experts
About Program
This program is built for electronics, VLSI and embedded systems students, as well as working engineers, who want to move beyond theory and actually build, run, and debug a RISC-V processor. No prior RISC-V experience is assumed — you'll start from environment setup and instruction-level basics and work your way up to pipeline debugging and processor verification.
Across 6 weeks you'll work hands-on with the RISC-V GNU Toolchain, Verilator, GTKWave, and the CORE-V Wally processor core. You'll decode raw machine instructions by hand, trace program counter and register behavior cycle-by-cycle, explore CSRs and trap handling, analyze five-stage pipeline hazards using real waveforms, and run both directed and randomized (RISC-V DV + Spike) verification regressions — the same workflow used in real silicon verification teams.
By the end of the program, you'll be able to set up and bring up a RISC-V processor from scratch, read and debug instruction traces and waveforms with confidence, write directed test plans, and run and root-cause a randomized regression — skills directly applicable to RTL design, DV, and embedded systems roles.
• Set up a complete RISC-V development and simulation environment (Toolchain, Verilator, GTKWave)
• Compile C programs for RISC-V and read the generated ELF, assembly and disassembly
• Decode RISC-V machine instructions into type, opcode, registers, funct fields and immediates by hand
• Write and debug RISC-V assembly programs covering arithmetic, branches, loops and function calls
• Trace CSR behavior (mstatus, mtvec, mepc, mcause) and explain full trap entry/return flow
• Analyze five-stage pipeline execution and diagnose RAW hazards, stalls, forwarding and flushes
• Bring up the CORE-V Wally processor, run Hello World, and debug it using waveforms
• Build directed and randomized (RISC-V DV + Spike) verification plans and root-cause regression failures
Module 1: RISC-V Development Environment Setup
• Install and configure Linux, Git, RISC-V GNU Toolchain, Python and Make
• Set up Verilator and GTKWave for simulation and waveform viewing
• Verify installation with a basic simulation run
Module 2: Your First RISC-V Program
• Write a simple C program and compile it with the RISC-V GCC toolchain
• Generate and inspect an ELF file
• Read generated assembly and disassembly, and explain selected instructions
Module 3: Program Analysis
• Identify entry point, .text/.data sections and instruction flow in a provided program
• Trace registers and function calls and returns
• Produce a short program-analysis report
Module 4: RISC-V Instruction Encoding & Decoding
• Decode machine instructions into type, opcode, rd, rs1, rs2, funct fields and immediates
• Cross-verify manual decoding against a disassembler
• Build a complete instruction-decoding table
Module 5: RISC-V Assembly Programming
• Write programs using arithmetic and logical instructions
• Implement loops, branches, and load/store operations
• Work with array operations and function calls
Module 6: Instruction Execution Trace
• Execute an assembly program step by step
• Analyze PC, instruction, register values and next-PC behavior
• Produce a complete execution trace deliverable
Module 7: Instruction Analysis
• Analyze 10–15 machine instructions from a given binary
• Identify format, opcode, registers and immediate values for each
• Complete a full instruction-analysis table
Module 8: CSR Exploration
• Inspect mstatus, mtvec, mepc and mcause during processor execution
• Analyze how CSR values change across execution
• Document CSR observations and their meaning
Module 9: Exception & Trap Handling
• Generate a controlled exception during execution
• Trace mcause, mepc, mtvec, trap-handler execution and mret
• Map out the complete trap-execution flow
Module 10: Trap Analysis
• Given a simulation trace, identify the exception raised
• Interpret mcause and determine mepc
• Explain trap entry and return behavior in a trap-analysis report
Module 11: Five-Stage Pipeline Analysis
• Analyze instruction execution through IF, ID, EX, MEM and WB stages
• Work within the CORE-V Wally pipeline context
• Produce stage-by-stage instruction analysis
Module 12: Pipeline Hazard Analysis
• Analyze RAW (read-after-write) dependencies
• Understand forwarding, stalls and dependency resolution
• Deliver a hazard analysis with timing explanation
Module 13: Waveform-Based Pipeline Debugging
• Use processor waveforms to identify pipeline stage, stalls and flushes
• Trace PC transitions and register updates through waveforms
• Produce a waveform/debug analysis report
Module 14: Pipeline Failure Analysis
• Analyze an intentionally failing trace/waveform
• Identify hazards, stalls, forwarding issues, flushes or incorrect PC/register behavior
• Deliver a root-cause analysis
Hands-on Projects
Lab 1 — RISC-V Development Environment Setup — Set up Linux, Git, RISC-V GNU Toolchain, Python, Make, Verilator and GTKWave, then verify the installation with a basic simulation; skill demonstrated: development and simulation environment setup.
Lab 2 — First RISC-V Program — Create a simple C program, compile it with the RISC-V GCC toolchain, generate an ELF file, and inspect the generated assembly/disassembly; skill demonstrated: C-to-RISC-V compilation and ELF analysis.
Lab 3 — RISC-V Instruction Encoding & Decoding — Decode machine instructions into instruction type, opcode, rd, rs1, rs2, funct fields and immediate values, and verify results using a disassembler; skill demonstrated: ISA-level instruction decoding.
Lab 4 — RISC-V Assembly Programming — Write programs using arithmetic/logical instructions, loops, branches, load/store operations, array operations and function calls; skill demonstrated: RISC-V assembly programming.
Lab 5 — Instruction Execution Trace — Execute an assembly program and analyze PC, instruction, register values and next-PC behavior to produce a full execution trace; skill demonstrated: instruction-level execution tracing.
Lab 6 — CSR Exploration — Inspect mstatus, mtvec, mepc and mcause during processor execution and analyze how CSR values change; skill demonstrated: privileged CSR inspection.
Lab 7 — Exception & Trap Handling — Generate a controlled exception and trace mcause, mepc, mtvec, trap-handler execution and mret; skill demonstrated: exception and trap-flow analysis.
Lab 8 — Five-Stage Pipeline Analysis — Analyze instruction execution through IF, ID, EX, MEM and WB stages using the CORE-V Wally context; skill demonstrated: pipeline stage-by-stage analysis.
Lab 9 — Pipeline Hazard Analysis — Analyze RAW dependencies and understand forwarding, stalls and dependency resolution; skill demonstrated: hazard detection and timing analysis.
Lab 10 — Waveform-Based Pipeline Debugging — Use processor waveforms to identify pipeline stage, stalls, flushes, PC transitions and register updates; tools used: CORE-V Wally, GTKWave; skill demonstrated: waveform-based pipeline debugging.
Live Training Highlights

Certificate
Certificate course in collaboration with NSDC,DPIIT

Internship
Opportunity to intern overseas

24 x 7 Support
Training with 24x7 mentor support

Mentoring & Doubt session
Personalized 1:1 mentoring

Schedule
Flexible course schedule

Salary
Assured 6 digit salary association with industry partners

LMS & RecordingAccess
Free access to Learning Resource Portal and Recordings

Live Projects
Engage in 3+ live projects and live case studies

100% Placement Support
Assistance by Industry Experts

Tools Access
Access to industry leading tools
Bonus Learning Perks

Github Profile

LinkedIn Profile

Resume Writing

Soft Skills

Mock Interview
Learning Roadmap

STEP
1
Building Strong Foundation
Build strong fundemental from scratch by experts
STEP
2
Internship Learning
Gain hands-on experience working on 3+ live projects
STEP
3
Placement Supports
Counselling of each candidate and building confidence, helping with resume building to get right career opportunity
TESTIMONIALS
See what our Learners have to say

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Ashwini Ranade
National Institute of Hydrology (NIH)
Placed at:
Data Science
Nice and well-organized course. - Ashwini Ranade

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Manisha Kumari
CISCO
Placed at:
Python Programming Internship
I recently completed my Python Programming Internship at Nation Innovation, and it was a highly enriching experience that strengthened my Python skills, coding confidence, and industry readiness through practical learning and supportive mentorship.

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Deepak Chaudhary
BlockDeep Labs
Placed at:
Internet of Things
Overall good. - Deepak chaudhary





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