IBM Advanced Semiconductor Research is essential for the future of computing

IBM Advanced Semiconductor Research is essential for the future of computing

The transistor is possibly the invention that has had the biggest influence on the course of modern history. Computer chips were made possible by the circuit integration of semiconductor transistors. Semiconductors now permeate every area of our life, and throughout the years, they have evolved into smaller, quicker processors that have exponentially increased the computing power at our hands.

The advent of the internet radically altered how we utilize semiconductors; they are now essential to nearly every part of our linked lives and do not only power our computers. Thousands of semiconductors can be found within a standard sedan car. Smartphones are used to operate entire businesses. AirPods are more potent than the initial computers we used to launch men to the moon. Our world would come to a standstill if we did not have access to ever-more-powerful chips.

The demand for powerful processing devices is growing along with new modalities to match new use cases as a result of the explosion in AI advances. We require innovative strategies, structures, materials, and partnerships to advance the field of semiconductors. We require a semiconductor industry prepared for all of the issues of the future as well as emerging new platforms like watsonx.

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Since the beginning of the computer industry, IBM has been a driving force. And when something was lacking, we created it. Examples include the development of electronic design automation (EDA) and the computers that propelled the same astronauts on the Apollo missions to the Moon. Our innovations in recent years have produced the 7 and 5-nanometer node processors that power many of the most cutting-edge technologies in use today. With our z Systems, we’ve created new chips for fresh uses, such as the Telum processor, which gave IBM z16 strong AI processing with millisecond latency.

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IBM has continued to lead the world in semiconductor breakthroughs, designing chips that are smaller, more powerful, and more energy efficient, such as the nanosheet device structure, vertical transistors (VTFET), the world’s first 2-nanometer node chip, and the Artificial Intelligence Unit (A.I.U.). This is true even though we now partner with volume manufacturing (AIU). Our current focus spans all facets of semiconductors, including innovative chip packaging, chipset technologies, logic scaling, and new computing paradigms including hybrid clouds, quantum computing, and artificial intelligence.

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Additionally, we think that greater levels of innovation and cooperation will be necessary to fully harness the potential of the emerging AI era. Chip production has grown increasingly consolidated over time, and supply chains have weakened. Through investments in research, partnerships, and partnerships in North America and with important partners across the world, IBM Semiconductors is also assisting in the creation of a balanced supply chain for computer chips.

Chip design is experiencing a rebirth right now, and at IBM Semiconductors, we’re concentrating on enlisting partners to help us on this path. The semiconductor business is now so specialized that bringing in outside partners to a shared platform for innovation might significantly speed up both research and production.

We collaborate with partners including Tokyo Electron, the State University of New York, and Samsung at our research site in Albany, New York, to develop solutions for the most urgent technology challenges of the present.

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campus spanning five buildings and more than 100,000 square feet of semiconductor fab area, IBM Research Albany is a member of the Albany Nanotech Complex, the foremost environment for semiconductor research in the world. Our 2 nm node chips are one of the most significant innovations to come from this building in recent years. Also, the complex is home to one of the most cutting-edge photolithography systems in the world, ASML’s Extreme Ultraviolet (EUV) lithography tool, which was essential in enabling the substantially higher transistor density necessary for the 2 nm breakthrough.

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Together with our partners, we have established a hub that combines the strengths of business, government, and academia to promote rapid advancement and novel discoveries. The bipartisan CHIPS and Science Act, which President Biden signed last summer, had a crucial clause that called for the establishment of the planned National Semiconductor Technology Center (NSTC), which could be built on the innovative research environment in Albany.

One of the leading-edge locations in the IBM Semiconductors ecosystem is Albany, although there are several others, including our Poughkeepsie facility, our advanced packaging production facility in Canada, and the Yorktown Heights headquarters of IBM Research.

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We have the chance to increase the manufacturing capacity and supply chain resilience for semiconductor packaging in North America with the help of our facility in Bromont. The semiconductor industry depends heavily on advanced packaging, and IBM Bromont facility has long been the global leader in this field. Having been in operation in the area for more than 50 years, it is one of North America’s largest chip assembly and testing plants. IBM is also collaborating on the future of quantum computing, artificial intelligence, and semiconductor research and development at Bromont with the municipal government of Quebec.

We think the North American semiconductor ecosystem will benefit from technical advancements, economic growth, and improved security if manufacturing and advanced packaging design are brought back to North American soil. Yet instead of relying on a single state or organization, our vision for the future of semiconductors is based on an open chipset ecosystem that brings people together to foster chances for close cooperation, training, and invention.

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