FND-10 - Advanced FPGA Design Methodologies and Techniques - 2 Days - Enroll Now This comprehensive course consolidates the full breadth of advanced FPGA design knowledge into a single intensive program. It covers modern FPGA design methodologies used in complex, high performance, and safety critical systems alongside the performance optimization techniques demanded by production grade designs. Participants move beyond coding for synthesis into disciplined FPGA system design — addressing architectural partitioning, clock and reset strategy, pipelining and retiming, DSP and memory architecture, full spectrum verification, timing closure, high speed I/O, power optimization, partial reconfiguration, functional safety, and team based development workflows. Participants should expect a fast paced, hands on course that balances conceptual depth with practical lab work. Course Content: 1. FPGA Architecture Fundamentals 2. Design Partitioning and Architecture Planning 3. Clock Domain Architecture 4. Reset Strategy and System Initialization 5. RTL Coding for Synthesis 6. Advanced HDL Methodologies 7. Data Flow and Pipelining 8. Memory Architecture and Inference 9. Pipeline Architecture and Stage Balancing 10. Register Retiming 11. Fmax Optimization and Critical Path Analysis 12. Clock Domain Crossing — Advanced Techniques 13. Altera DSP Block Architecture 14. Fixed Point Pipeline Design 15. On Chip Memory Optimization 16. External Memory Interfaces 17. Functional Verification Strategy 18. Simulation and Debug 19, Formal Verification Fundamentals 20, Design for Testability 21. In System Debug 22. Timing Constraints and Analysis 23. Timing Closure Techniques 24. Multi Corner Timing Analysis and Constraint Refinement 25. High Speed Parallel I/O 26. LVDS and Eye Diagram Analysis 27. High Speed Serial (SERDES) Architecture 28. Ethernet IP and System Level Serial Integration 29. IP Integration and Platform Designer 30. Platform Designer — Advanced Topics 31. Power Analysis with PowerPlay 32. Clock Gating and Low Power Design Techniques 33. Partial Reconfiguration 34. Design for Safety and Reliability 35. Advanced Reliability Techniques 36. High Level Synthesis (HLS) and Algorithm Prototyping 37. Design Reuse and IP Packaging 38. Team Workflows and CI/CD Integration 39. Resource and Power Budgeting — System Trade offs 40. High Performance Subsystem Integration Prerequisites: - Proficiency in Verilog or VHDL: ability to write synthesizable RTL for combinational and sequential logic - Working knowledge of digital design fundamentals: flip flops, state machines, FIFOs, timing diagrams - Basic familiarity with Altera® Quartus® Prime (Standard or Pro): project creation, synthesis, and programming - Understanding of FPGA device concepts: logic elements, I/O banks, PLLs, embedded memory Recommended Experience: - Exposure to SystemVerilog for design or verification (interfaces, structs, typedef) - Basic simulation experience using ModelSim or Questa - Familiarity with standard digital bus protocols (AXI, Avalon, or similar) - Experience reading synthesis and timing analysis reports Tools Required: - Altera Quartus Prime Pro Edition - Questa (ModelSim Altera FPGA Edition) - Altera Timing Analyzer (included in Quartus) - Altera Signal Tap Logic Analyzer (included) - Altera Platform Designer / QSYS (included) - PowerPlay Power Analyzer (included) - In System Memory Content Editor (included) - Ashling RiscFree for Altera FPGAs - oneAPI FPGA Toolkit (optional) - Siemens Questa CDC - Siemens JasperGold (or Questa Formal) - GTKWave - Git + Git LFS - Python - Tcl / Tclsh - MATLAB / Simulink + HDL Coder (optional) Course Code: FND-10. FA_ADVDESIGN.