Shift-Left Pattern Matching Boosts Automotive IC Quality And Time-To-Market


As the automotive industry races towards a future of connected, autonomous, and electrified vehicles, the complexity of integrated circuits (ICs) powering these innovations is reaching unprecedented levels. Modern automotive ICs incorporate a diverse mix of custom and third-party intellectual property (IP), each with unique performance requirements that must be meticulously verified to ensure f... » read more

Improving Verification Methodologies


Methodology improvements and automation are becoming pivotal for keeping pace with the growing complexity and breadth of the tasks assigned to verification teams, helping to compensate for lagging speed improvements in the tools. The problem with the tools is that many of them still run on single processor cores. Functional simulation, for example, cannot make use of an unlimited number of c... » read more

Controlling Leakage Power


IC designers face a significant challenge in managing leakage power - a phenomenon that can profoundly impact your device's power, performance, area (PPA), and overall reliability. Leakage can occur in various ways, from parasitic leakage to analog gate leakage or digital gate leakage, and you must address these issues with great care, as even subtle circuit changes can lead to reliability prob... » read more

Enhancing Reliability For Automotive ICs


As an IC designer focused on automotive applications, reliability is likely one of your top priorities. The components you develop need to withstand extreme environmental conditions, maintain performance over extended lifetimes, and meet rigorous industry standards. Failure is simply not an option when it comes to automotive electronics. Achieving the required levels of reliability can be a ... » read more

Tackling Reliability In Early IC Design


As the semiconductor industry continues its relentless march towards smaller process nodes and more complex integrated circuits (ICs), the challenge of ensuring reliability has become increasingly difficult. Industry analysts predict a significant increase in demand for semiconductor reliability verification as analysis become critical parts of the overall design verification process. The st... » read more

Calibre DesignEnhancer Design-Stage Layout Modification Improves Power Management Faster And Earlier


In today’s IC designs, effective power management through layout optimization is crucial for achieving PPA targets. This paper, written by Jeff Wilson, describes how the Calibre DesignEnhancer platform, is used to specifically tackle the EMIR components of power management. DesignEnhancer offers P&R and custom/analog design teams a fast, integrated environment for implementing Calibre-cle... » read more

Enhancing Power Reliability Through Design-Stage Layout Optimization


As integrated circuit (IC) designs continue to scale, the demand for efficient power management, performance optimization and reliable physical layout modification grows more critical. Meeting these power, performance and area (PPA) targets is essential for ensuring that IC designs operate effectively at advanced process nodes. One of the main challenges for design and verification engineers is... » read more

Where Is The Software For Shift Left?


Co-development of hardware and software has been a dream for a long time, but significant hurdles remain. Neither domain is ready with what the other requires at the appropriate time. The earlier something can be done in a development flow, the less likely problems will be found when they are more difficult or expensive to fix. It may require both tool and methodology changes, so that a proc... » read more

Shift Left Strategy For Semiconductor Production Testing


In the fast-paced world of semiconductor manufacturing, achieving higher yields and reducing costs are constant challenges. Ideally, yield should only be impacted by unavoidable defects when everything else is performing as expected. However, when yield reduction occurs due to the process sensitivity of the design, these issues can be detected and, in many cases, corrected. proteanTecs has d... » read more

How To Speed Up LVS Verification


Layout versus schematic (LVS) comparison is a crucial step in integrated circuit (IC) design verification, ensuring that the physical layout of the circuit matches its schematic representation. The primary goal of LVS is to verify the correctness and functionality of the design. Traditionally, LVS comparison is performed during signoff verification, where dedicated tools compare layout and sche... » read more

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