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AMBA Protocols using SV | UVM Verification

Get Industry expertise in APB, AHB, AXI series and deep into debugging techniques and Testcases development for special features

Course & Modes

Module: APB Protocol - RTL Design and Verification

Module 1: Introduction to APB Protocol

  • APB Protocol Overview: Purpose of APB in low-power peripherals, signal and bus architecture, timing diagrams, and key operations.
  • Features of APB: Simple interface with minimal control, Read/Write operations, pipelining restrictions.

Module 2: RTL Design for APB

  • APB Master and Slave Design: Signal interface (PADDR, PWDATA, PREADY, etc.), state machine design, address decoding, and data transfer logic.
  • RTL Code Development: Verilog-based APB implementation, coding examples, simulation for read/write transfers.
  • Simulation and Debugging: Testbench creation, waveform analysis, and protocol behavior debugging.

Module 3: Verification of APB Protocol

  • UVM Testbench Architecture: UVM components specific to APB, sequences for read/write operations.
  • Assertions for APB: Timing checks (PREADY, PSLVERR), assertion-based functional verification.
  • Coverage Analysis: Functional and code coverage for APB features, metric optimization.

Module 4: Project on APB

  • Project: Full APB Verification: Complete UVM verification flow, debug analysis, reporting, and documentation.

Module: AHB Protocol - RTL Design and Verification

Module 1: Introduction to AHB Protocol

  • AHB Protocol Overview: High-performance pipelined bus system, burst transfers, arbitration mechanisms, signal descriptions, and timing diagrams.
  • Features of AHB: Single clock-edge operation, multiple masters/slaves, burst and split transactions.

Module 2: RTL Design for AHB

  • AHB Master and Slave Design: AHB signal architecture (HADDR, HWRITE, HRESP, etc.), pipelined state machine design, address decoding, and data transfer logic.
  • RTL Code Development: Implementation of interfaces, coding examples for burst/single transfers.
  • Simulation and Debugging: Testbench creation, timing analysis, and waveform debugging.

Module 3: Verification of AHB Protocol

  • UVM Testbench Architecture: UVM environment for AHB, sequences for split/burst transfers.
  • Assertions for AHB: Timing checks for arbitration, data consistency, burst verification.
  • Coverage Analysis: Coverage for split, retry, burst; metrics for arbitration and pipelining.

Module 4: Project on AHB

  • Full AHB Verification Project: End-to-end UVM verification, detailed coverage, report and presentation preparation.

AXI Protocol - RTL Design and Verification

Module 1 - Introduction to AXI Protocol

Topics

  • Advanced features of AXI (QoS, out-of-order execution)
  • AXI channels: Write, Read, Address, Response
  • Signal timing diagrams and concurrent transfers

Features

  • Outstanding transactions and burst operations
  • Separate address/control and data phases
  • Low latency and high bandwidth

Module 2 - RTL Design for AXI

Design Focus

  • AXI Master and Slave Design
  • Signal architecture (AWADDR, WDATA, BRESP, etc.)
  • State machine design for AXI channels
  • Handling concurrent transactions

Development & Simulation

  • AXI-compliant master and slave interface coding
  • Address mapping and interconnect design
  • AXI testbench creation and waveform debugging
  • Simulating multiple outstanding transactions

Module 3 - Verification of AXI Protocol

UVM Testbench Architecture

  • UVM environment tailored for AXI
  • Handling multiple AXI channels simultaneously

Assertions & Coverage

  • Checking AXI handshakes (AWVALID, WREADY, etc.)
  • Timing checks for out-of-order execution
  • Functional coverage for burst types and QoS levels
  • Coverage for out-of-order execution scenarios

Module 4 - Project on AXI Protocol

Project: Full AXI Verification

  • Comprehensive end-to-end verification of AXI features
  • Building UVM-based testbench with multiple scenarios
  • Writing sequences for burst, single, and exclusive transfers
  • Generating functional and code coverage reports
  • Debugging timing issues and transaction mismatches
  • Assertion-based verification (ABV) to validate AXI protocol checks
  • Performance evaluation: latency, throughput, and utilization

Module 5 - AXI Protocol Advanced Scenarios

Advanced Topics

  • Exclusive accesses and locked transactions
  • AXI4-Lite vs AXI4-Full vs AXI3 comparison
  • Integration with multiple masters and slaves

Use Cases

  • AXI for high-speed data movement (e.g., DMA)
  • Design considerations for SoC architectures
  • Low-power and QoS-aware transaction examples

Module 6 - AXI System-Level Integration

System Design Concepts

  • Integrating AXI with AHB and APB bridges
  • Designing AXI crossbars and arbiters
  • Interfacing AXI with memory controllers and peripherals

Hands-On Lab

  • System-level simulation with multiple bus protocols
  • Debugging cross-protocol transaction failures
  • Performance tuning and latency analysis

Additional Features

Introduction to System on Chip Design
SOC Verification vs IP Verification
Verification approaches at Industry level
Pre silicon vs Post silicon Verification
Verification vs Validation