Bridging the Gap Between Silicon and Software Validation
By Paul Bradley, DAFCA, Inc
June 06, 2008 -- edadesignline.com
Post-silicon SoC "whole system" validation solutions have lagged behind the increasing complexity of low power schemes, multi-core architectures, complex clock domains and sub 90 nm manufacturing. This is a bad news/good news story. The bad news is that teams developing massive and complex SoCs already realize that they cannot ignore their plans for the post-silicon phase, and that legacy patchwork solutions are no longer sufficient. The good news is that the new paradigms and methodologies employed in the pre-silicon verification space can be leveraged in post-silicon validation. Indeed, the blueprint for abstraction, visibility, messaging, and assertion checking already exists.
Today, complex SOC and ASIC designs require advanced validation and debug solutions that bridge the gap, not just between pre-silicon and post-silicon, but perhaps more importantly, between embedded software and hardware systems.
The need for visibility and control between software and hardware systems is not new. However, the lack of visibility and control has become an acute problem, especially as SoC hardware functions and embedded software systems have grown more complex. The challenge is compounded by multi-core designs composed of heterogeneous third-party processors, buses, switches, and peripherals, where reduced on-chip visibility of key functions and inter-block communications is the current norm. The visibility problem is not limited to complex hardware interactions, but extends to embedded software systems operating on the hardware.
June 06, 2008 -- edadesignline.com
Post-silicon SoC "whole system" validation solutions have lagged behind the increasing complexity of low power schemes, multi-core architectures, complex clock domains and sub 90 nm manufacturing. This is a bad news/good news story. The bad news is that teams developing massive and complex SoCs already realize that they cannot ignore their plans for the post-silicon phase, and that legacy patchwork solutions are no longer sufficient. The good news is that the new paradigms and methodologies employed in the pre-silicon verification space can be leveraged in post-silicon validation. Indeed, the blueprint for abstraction, visibility, messaging, and assertion checking already exists.
Today, complex SOC and ASIC designs require advanced validation and debug solutions that bridge the gap, not just between pre-silicon and post-silicon, but perhaps more importantly, between embedded software and hardware systems.
The need for visibility and control between software and hardware systems is not new. However, the lack of visibility and control has become an acute problem, especially as SoC hardware functions and embedded software systems have grown more complex. The challenge is compounded by multi-core designs composed of heterogeneous third-party processors, buses, switches, and peripherals, where reduced on-chip visibility of key functions and inter-block communications is the current norm. The visibility problem is not limited to complex hardware interactions, but extends to embedded software systems operating on the hardware.
To read the full article, click here
Related Semiconductor IP
- Zigbee Transceiver PHY
- Data Flow Architecture IP
- AMBA SPI Controller MRAM Controller
- Ethernet MAC
- Protocol Bridges
Related Articles
- SoC silicon is first-time success following simulation and validation of novel array processor
- A New Approach to In-System Silicon Validation and Debug
- In-System Silicon Validation and Debug: Part 2
- In-System Silicon Validation and Debug -- Part 3: Silicon Experience
Latest Articles
- A Low-Latency ASIC Architecture for Real-Time Line Segment Detection
- BitFair: A 12nm Bit-Serial CNN Accelerator with Learnable Early Termination and Adaptive Bit Ordering for Ultra-Low-Power XR Vision
- A Flexible Sparsity-Aware FPGA Accelerator with Column-Wise Compression for Efficient CNN Inference
- Reducing Instruction-Fetch Energy in RISC-V for Embedded AI Processing via Dynamic and Static Loop Caching
- SPARC: Automated Root-Cause Analysis of Pre-Silicon Power Side-Channel Leakage in the Processor Design Flow