Scaling Performance In AI Systems

By Ed Sperling - 11 Nov, 2024 - Comments: 0

Improving performance in AI designs involves the usual tradeoffs in power and performance, but achieving a good balance is becoming much more challenging. There is more data to process, new heterogeneous architectures to contend with, and much higher utilization rates. Andy Nightingale, vice president of product management and marketing at Arteris, talks about where the bottlenecks are, how to ... » read more

Reducing SoC Power With NoCs And Caches

By Andy Nightingale - 31 Oct, 2024 - Comments: 0

Today’s system-on-chip (SoC) designs face significant challenges with respect to managing and minimizing power consumption while maintaining high performance and scalability. Network-on-chip (NoC) interconnects coupled with innovative cache memories can address these competing requirements. Traditional NoCs SoCs consist of IP blocks that need to be connected. Early SoCs used bus-based archi... » read more

Chiplets Make Progress Using Interconnects As Glue

By Ann Mutschler - 31 Oct, 2024 - Comments: 0

Breaking up SoCs into their component parts and putting those and other pieces together in some type of heterogeneous assembly is beginning to take shape, fueled by advances in interconnects, complex partitioning, and industry learnings about what works and what doesn't. While the vision of plug-and-play remains intact, getting there is a lot more complicated than initially imagined. It can ... » read more

Accelerate AI SoC Designs with NoC Tiling

By Arteris - 30 Oct, 2024 - Comments: 0

Network-on-chip (NoC) tiling technology is revolutionizing AI and machine learning-enabled semiconductor designs. This emerging approach uses proven, robust network-on-chipIP to facilitate scaling, condense design time, speed testing and reduce design risk. It allowsSoC architects to create modular, scalable designs by replicating soft tiles across the chip. Each soft tile represents a self-con... » read more

Data Routing In Heterogeneous Chip Designs

By Ed Sperling - 30 Sep, 2024 - Comments: 0

Ensuring data gets to where it's supposed to go at exactly the right time is a growing challenge for design engineers and architects developing heterogeneous systems. There is more data moving around these chips with dozens of targets, which makes routing signals much more complicated. Ronen Perets, senior product marketing manager at Cadence Design Systems, talks about some of the new problems... » read more

Managing Performance in Modern SoC Designs

By John Min - 26 Sep, 2024 - Comments: 0

As industries like automotive, consumer electronics, telecommunications and artificial intelligence (AI) push for greater processing power, efficiency and scalability, system-on-chip (SoC) designs have rapidly evolved to meet these demands. With the growing complexity of modern SoCs, designers face the challenge of managing an increasing number of interconnected IP blocks while ensuring seamles... » read more

Streamlining Complex Semiconductor Designs With IP-XACT-Based Structured Assembly

By Insaf Meliane - 29 Aug, 2024 - Comments: 0

Semiconductor design is rapidly evolving because technologies such as AI and machine learning (ML) applications push the boundaries of complexity and specialization. Modern chips require hundreds or thousands of IP blocks, leading to significant design challenges. Multi-die architectures, which distribute functional blocks across multiple dice, demand expert planning to ensure connectivity and ... » read more

Optimizing Interconnect Topologies For Automotive ADAS Applications

By Ashley Stevens - 25 Jul, 2024 - Comments: 0

Designing automotive Advanced Driver Assistance Systems (ADAS) applications can be incredibly complex. State-of-the-art ADAS and autonomous driving systems use ‘sensor fusion’ to combine inputs from multiple sources, typically cameras and optionally radar and lidar units to go beyond passive and active safety to automate driving. Vision processing systems combine specialized AI accelerators... » read more

Cadence Janus NoC System IP

By Cadence - 17 Jul, 2024 - Comments: 0

The Cadence Janus Network on Chip (NoC) is a new highly configurable soft IP designed to speed up the system-on-chip (SoC) and full system design cycle by reducing some of the problems associated with large SoCs. With many more processing nodes, as well as memory and I/O nodes designed into the SoC, the interconnect becomes a major design hurdle. Wiring congestion and wire loads introduce ch... » read more

Streamlining SoC Design With Advanced IP And Integration Solutions

By Andy Nightingale - 27 Jun, 2024 - Comments: 0

As system-on-chip (SoC) complexity grows, so does the necessity for products that seamlessly connect IP and streamline integration processes, minimize manual errors, and enhance productivity. The emphasis on physical awareness across solutions significantly reduces the iterative cycles of NoC placement and routing. By ensuring low latency and high efficiency, these advanced integration solution... » read more

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Knowledge Centers
Entities, people and technologies explored

Shift Left Is The Tip Of The Iceberg

A transformative change is underway for semiconductor design and EDA. New languages, models, and abstractions will need to be created.

by Brian Bailey

Partitioning In The Chiplet Era

Understanding how chiplets interact under different workloads is critical to ensuring signal integrity and optimal performance in heterogeneous designs.

by Ann Mutschler

3.5D: The Great Compromise

Pros and cons of a middle-ground chiplet assembly that combines 2.5D and 3D-IC.

by Ed Sperling

AI’s Role In Chip Design Widens, Drawing In New Startups

Focus is on letting engineers do much more with the same or fewer resources — and less drudgery.

by Karen Heyman

Key Technologies To Extend EUV To 14 Angstroms

Alongside high-NA EUV will be better-performing photoresists, reduced roughness using passivation and etch, and lateral etching to reduce tip-to-tip dimensions.

by Laura Peters

Memory Fundamentals For Engineers

eBook: Nearly everything you need to know about memory, including detailed explanations of the different types of memory; how and where these are used today; what's changing, which memories are successful and which ones might be in the future; and the limitations of each memory type.

by The SE Staff

What Comes After HBM For Chiplets

The standard for high-bandwidth memory limits design freedom at many levels, but that is required for interoperability. What freedoms can be taken from other functions to make chiplets possible?