Artificial intelligence and machine learning are rapidly penetrating a wide spectrum of devices, driving the re-architecture of SoC designs and requiring more memory space and higher bandwidth to transfer and process data. This change requires higher speed interfaces and wider buses, paving the path for enhancements in the latest PCIe protocol specifications, as well as upgrades in PIPE (PHY Interface for the PCI Express) specification as the preferred PHY interface.
Arm TechCon was successfully held at San Jose Convention Center on 8-10th October, 2019. Synopsys protocol experts were there demonstrating our verification solutions for attendees from a wide spectrum of markets like IoT, mobile, automotive, and consumer.
We are excited to attend the upcoming JEDEC workshops and tutorial in Santa Clara, October 7th – 10th. The workshops will provide an introduction and in-depth technical review of the DDR5, LPDDR5 and NVDIMM-P standards as well as present the latest reliability and optimization features.
HBM2E (High Bandwidth Memory) is a high-performance 3D-stacked DRAM used in high-performance computing and graphic accelerators. It uses less power but posts higher bandwidth than graphics cards relying on DDR4 or GDDR5 memory. Validating the performance and utilization of memory is a big challenge for users due to complex structure of SoC and the subsystem attached to it such as memory subsystem, interconnect bus, and processor.
The growing disparity between processor and memory speeds has caused memory bandwidth to become the performance bottleneck for many applications. For example, have you spent sleepless nights looking for ways to identify the performance bottlenecks and root cause them in your Memory Controller/PHY and Subsystem verification project?
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Looking for ways to reduce debug cycles to quickly root cause the issues in your Memory Controller/PHY and Subsystem Verification Project?
Ethernet Time-Sensitive Network (TSN): A Boon for Automotive Audio-Video Bridging (AVB) Applications
Autonomous cars, vehicle communication and infotainment electronic systems are prevalent in today’s automobiles and everyday life. But, what does this mean for SoCs today?
LPDDR5: Meeting Power, Performance, Bandwidth, and Reliability Requirements of AI, IoT and Automotive
The semiconductor industry is buzzing with new technologies – Artificial Intelligence (AI), Machine Learning (ML), IoT, Automotive, etc. – bringing a revolution by easing out our day-to-day lives and improving considerably performance, bandwidth and reliable data processing and transfer. Reliability and data integrity are even more important for safety critical verticals where even the slightest error can be catastrophic. Stepping up to meet industry trends, JEDEC recently announced its fifth revision of LPDDR standard JESD209-5 which is all equipped to match the latest bandwidth, power, performance, and reliability trends. Immediately following this, Synopsys announced the Industry’s First LPDDR5 IP & VIP Solution Extending Leadership in DDR5/LPDDR5. Strengthening our leadership in memory VIP, recently we also announced the Industry’s First DDR5 NVDIMM-P Verification IP, showing our continued collaboration with leading memory vendors.
PCI-SIG recently announced the New PCI Express® 5.0 Specification, reaching 32GT/s transfer rates while maintaining low power and backward compatibility with previous technology generations. Aligned with this, Synopsys also announced the collaboration of its Design and Verification Solutions with Astera Labs to Develop Industry’s First PCIe 5.0 Retimer SoC. Emerging applications like AI, cloud, data center, and 5G have been driving the exponential increase in bandwidth requirements and PCIe has evolved to meet these increasing requirements.
High resolution 8k UHD displays for emerging technologies like connected cars, IoT, and AR/VR (Augmented/Virtual Reality) require high bandwidth to support the high-resolution transmission. MIPI DSI is the widely used display interface, but the bandwidth provided by PHY layers isn’t sufficient enough to support the high-resolution displays; therefore, a compression technique like DSC (Display Stream Compression) is required. One of our recent blog discussed about DSC 1.2 in HDMI 2.1 – High Resolution Displays for Mobile, TV, PC and Automotive Enabled by DSC 1.2 in HDMI 2.1. In this blog, we will see how DSC 1.2 enables MIPI DSI to support the high-resolution displays for emerging applications.