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Hyperscaler design and verification with HyperLynx

공유

HyperLynx Hyperscaler design and verification

Hyperscaler computing pushes design requirements to the extreme, including component and routing density, signal speed, power utilization and thermal dissipation. For the systems designer, these large, complex designs operate with extraordinarily small timing and voltage margins, which means that modeling and simulation work has to be highly accurate to ensure that the design will work in production. While accurate modeling of critical structures with full-wave electromagnetic solvers is essential, it’s also critically important that design simulations represent the board as will actually be manufactured, instead of just the way the system designer wants it to be fabricated.

In this webinar, we’ll discuss the process of exploring design options, optimizing critical structures and verifying system-level operating margins for a system using a combination of 56 and 112G optical links. We’ll show how the behavior of all the serial links can be accurately modeled and verified for the design as it will be manufactured, thereby maximizing the chance for first-pass design success.

What You Will Learn:

  • Design exploration, optimization and verification issues associated with large-scale systems
  • How automated post-layout modeling enables full-system verification
  • How to leverage speed/accuracy tradeoffs to reduce 3D modeling times
  • How to scale simulation performance to ensure overnight turnaround

Who Should Attend:

  • Designers of large-scale datacenter networking & computing hardware
  • Designers looking to close the gap between simulation and reality
  • Hardware design managers looking to improve analysis coverage and reduce project schedule risk

Products Covered:

  • HyperLynx DRC
  • HyperLynx SI/PI
  • HyperLynx Advanced Solvers

발표자 소개

Siemens EDA

Zach Caprai

Technical Marketing Engineer

Zach Caprai is a Technical Marketing Engineer at Siemens, specializing in the HyperLynx suite of analysis tools for PCB design. He earned his bachelor's degree in Electrical and Computer Engineering, with a minor in Computer Science, from Oregon State University. Zach's areas of expertise include Power Delivery Network design, 3D EM modeling, high-speed SerDes channel analysis, and the development of scripting and automation solutions to enhance PCB design workflows.

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