What’s changing at the leading edge of Moore’s Law and why those changes are so important.
Soitec’s Steve Longoria talks with Semiconductor Manufacturing and Design about what’s changing at the leading edge of Moore’s Law and why those changes are necessary.
Costs of developing a complex chip could run as high as $1.5B, while power/performance benefits are likely to decrease.
Technology has the potential to reshape processing everywhere, starting with limited scientific and commercial applications.
A primary goal of machine learning is to use machines to train other machines. But what happens if there’s malware or other flaws in the training data?
What happens when companies are combined? The outcome often isn’t as good as the announcement.
This technology has resurfaced as one option at 5nm, but it’s still not clear if it will work.
Why packaging is becoming increasingly critical and difficult in the automotive market.
Costs of developing a complex chip could run as high as $1.5B, while power/performance benefits are likely to decrease.
Lines blur as processors are added into traditional FPGAs, and programmability is added into ASICs.
Technology has the potential to reshape processing everywhere, starting with limited scientific and commercial applications.
Shortages of used equipment and lower margins mean this problem isn’t getting solved anytime soon.
Random variations will require new methodologies, tools and cooperation among different companies.
5G is driving up demand for both 300mm and 200mm capacity. Both are in short supply.
This more than Moore technology is still ramping up, and problems need to be solved, but it could lead to some fundamental changes.
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