Docea Power Unveils New Release of Aceplorer and AceThermalModeler

Aceplorer is Docea Power’s system-level power and thermal modeling and simulation software for early architecture exploration, architecture validation and power budget tracking. AceThermalModeler generates compact thermal models for System on Chips (SoCs), 3D ICs, Systems in Package (SiPs) or complete boards.

Docea Power will be demonstrating its new software releases at DATE (Design Automation and Test) 2013 in Grenoble from March 19 to 21 on booth #41.

“With the combination of higher power density and smaller form factors, the limit of what current packaging solutions can dissipate is being reached for many devices. A high junction temperature or a high case temperature can quickly limit access to full performance and hamper the user’s experience,” noted Ghislain Kaiser, Docea Power CEO. “Our latest releases, give systems architects better tools to optimize their design and support a collaborative framework among system architects, packaging designers, thermal experts, software developers and SoC designers.”

What’s New

Aceplorer 3.1 features a fast solver for coupled power and thermal simulations with 1000x performance gains over the previous version. It also features a communication protocol for 3rd party tools that enables co-simulation with timed virtual platforms or performance analysis tools. Co-simulation of timed virtual platforms and Aceplorer models allow users to simulate dynamic power and thermal management strategies using real use cases where simulation duration ranges from a few seconds to tens of minutes.

Docea’s dynamic power and thermal management simulations allow system architects to scale the operating point in the performance model with power and temperature feedback provided by Aceplorer’s virtual power model during simulation.

AceThermalModeler 2.0 improves usability and has an enhanced graphical user interface to ease modeling. Models generated with AceThermalModeler are imported in Aceplorer to get transient and steady state power and thermal responses from scenario-based stimuli.