Modern Altera SoC designs combine high performance FPGA fabric with complex multi clock architectures, high speed memory and serial interfaces, embedded memories, and an Arm® based Hard Processor System (HPS) running bare metal firmware, an RTOS, or embedded Linux. When a failure appears in this environment it can originate simultaneously across RTL logic, SDC timing constraints, clock and reset domain crossings, IP configuration, FPGA device configuration, board timing, HPS/fabric bridge connectivity, bootloader configuration, device driver code, or Linux kernel interactions. The fastest engineering teams isolate these failures rapidly by applying a systematic, layered debug methodology supported by the right combination of in-system instrumentation and software analysis tools.
This advanced course equips engineers with a complete end-to-end toolkit for finding, localizing, reproducing, and fixing failures across all layers of an Altera SoC design. Coverage ...
Modern Altera SoC designs combine high performance FPGA fabric with complex multi clock architectures, high speed memory and serial interfaces, embedded memories, and an Arm® based Hard Processor System (HPS) running bare metal firmware, an RTOS, or embedded Linux. When a failure appears in this environment it can originate simultaneously across RTL logic, SDC timing constraints, clock and reset domain crossings, IP configuration, FPGA device configuration, board timing, HPS/fabric bridge connectivity, bootloader configuration, device driver code, or Linux kernel interactions. The fastest engineering teams isolate these failures rapidly by applying a systematic, layered debug methodology supported by the right combination of in-system instrumentation and software analysis tools.
This advanced course equips engineers with a complete end-to-end toolkit for finding, localizing, reproducing, and fixing failures across all layers of an Altera SoC design. Coverage spans advanced SystemVerilog Assertions and nonintrusive checker binding, formal verification and structural CDC/RDC analysis using Altera Questa Formal, deep multi clock timing closure, FPGA device configuration failure diagnosis, high speed transceivers and EMIF, HPS boot debug with the Arm Development Studio JTAG debugger, Linux BSP and kernel driver debug, RTOS task level analysis, DMA descriptor chain diagnosis, and correlated HPS/FPGA cross domain fault isolation using simultaneous Signal Tap and Linux ftrace.