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Module 7 · 4 weeks · Design Verification

DV Capstone Projects

Put the whole toolkit together on real verification projects: a synchronous FIFO testbench, a UVM environment for an APB register block with RAL, an AXI-Lite slave environment, an async-FIFO CDC project, and a small SoC-lite capstone — each with stimulus, checking, coverage and a regression you can show an interviewer.

4 weeks·5 assignments·~17 h of work·Advanced

By the end you can

  • Verify real DUTs end to end with reusable environments
  • Combine constrained-random stimulus, scoreboards and coverage
  • Apply UVM, RAL and protocol knowledge on integrated problems
  • Produce portfolio projects you can defend line by line

0 / 5 assignments done

Move each assignment through the stages — progress saves automatically.

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W1

Project 1 — Synchronous FIFO verification

0/1

A complete SystemVerilog testbench for a FIFO: constrained-random traffic, a reference model, full/empty checks and coverage.

Core150 min· Integrated SV verification

Verify a synchronous FIFO end to end

Take a synchronous FIFO DUT and build a full class-based testbench: a generator of constrained-random read/write traffic (including full and empty pressure), a reference-model scoreboard that predicts data order, flag checks, and functional coverage of depth occupancy and corner conditions.

Requirements

  • Constrained-random stimulus that reaches full and empty
  • A queue-based reference model checking data order
  • Assertions for full/empty correctness (no overflow/underflow)
  • Coverage of occupancy levels and simultaneous read/write

You'll be able to

  • Assemble a complete SV testbench from parts you built earlier
  • Verify ordering, flags and corners together

Submitting your solution link marks this assignment done.

Reference solutionPackUnlock with a pack

A full worked solution with a step-by-step walkthrough — included with the domain pack and All-Access. Try it yourself first.

W2

Project 2 — APB register block with UVM + RAL

0/1

A UVM environment for a memory-mapped APB register block, driven and checked through the register abstraction layer.

Stretch210 min· UVM + RAL integration

UVM + RAL environment for an APB register block

Build a UVM environment for an APB slave with several registers (RW, RO, W1C). Model the registers with RAL, drive them through an APB agent and adapter, add a predictor, and write tests that check reset values, read/write access policies, and W1C behavior.

Requirements

  • An APB UVM agent (driver, monitor, sequencer)
  • A RAL model with an adapter and predictor
  • Built-in-style tests: reset value, read/write, and access-policy
  • Coverage of register accesses and the W1C path

You'll be able to

  • Integrate a UVM agent with a RAL model
  • Verify register access policies systematically

Submitting your solution link marks this assignment done.

Reference solutionPackUnlock with a pack

A full worked solution with a step-by-step walkthrough — included with the domain pack and All-Access. Try it yourself first.

W3

Project 3 — AXI-Lite slave environment

0/1

A UVM environment for an AXI-Lite slave: channel handshakes, a memory-model scoreboard, and protocol coverage.

Stretch210 min· AXI-Lite UVM integration

Verify an AXI-Lite slave in UVM

Build a UVM environment for an AXI-Lite slave (memory-mapped). Drive AW/W/B and AR/R with correct VALID/READY handshakes, model the slave memory in a scoreboard, add SVA channel checks, and cover read/write across all address regions.

Requirements

  • An AXI-Lite agent handling all five channels
  • A memory-model scoreboard for write-then-read
  • SVA for the VALID/READY handshake per channel
  • Coverage of direction × region and back-pressure

You'll be able to

  • Verify an AXI-Lite slave end to end
  • Combine protocol assertions with a data scoreboard

Submitting your solution link marks this assignment done.

Reference solutionPackUnlock with a pack

A full worked solution with a step-by-step walkthrough — included with the domain pack and All-Access. Try it yourself first.

W4

Projects 4 & 5 — CDC block and a SoC-lite capstone

0/2

A CDC-focused project (async FIFO) and a small multi-block capstone that ties protocol, CDC and UVM together.

Stretch180 min· CDC verification project

Project 4 — Async FIFO / CDC verification

Verify a dual-clock async FIFO: drive independent read/write clocks with a range of frequency ratios, check data integrity and ordering across the crossing, assert Gray-pointer one-bit-change, and confirm no data loss under full/empty pressure.

Requirements

  • Independent, configurable read/write clocks
  • Data-integrity + ordering check across the CDC
  • Assertions for Gray-code one-bit change and flag safety
  • Stress at several clock ratios including near-equal

You'll be able to

  • Verify a real CDC block dynamically
  • Combine CDC assertions with data checking

Submitting your solution link marks this assignment done.

Reference solutionPackUnlock with a pack

A full worked solution with a step-by-step walkthrough — included with the domain pack and All-Access. Try it yourself first.

Stretch240 min· Integrated multi-block verification

Project 5 — SoC-lite capstone

Verify a small SoC-lite: an APB (or AXI-Lite) interconnect fronting two slaves (e.g. a register block and a memory), with a UVM environment, a virtual sequence coordinating traffic, a scoreboard per slave, and a regression across seeds with merged coverage.

Requirements

  • A UVM env with a bus agent and two slave models
  • A virtual sequence generating mixed traffic to both slaves
  • Per-slave scoreboards and protocol assertions
  • A multi-seed regression with merged coverage and a sign-off summary

You'll be able to

  • Verify an integrated multi-block system
  • Run a regression and argue coverage closure

Submitting your solution link marks this assignment done.

Reference solutionPackUnlock with a pack

A full worked solution with a step-by-step walkthrough — included with the domain pack and All-Access. Try it yourself first.

Put it to work

Drill the matching interview questions, then see where this module sits in the full Design Verification roadmap.