Title: The Future of Compute: Reliability and Resiliency in the era of Data Transformation

Abstract: The digital transformation continues to gain momentum and is changing the shape of business, industry and consumers around the world. This transformation is characterized by continued strong demand for compute at all points in the network – at the core, the edge, and at the endpoints. Data continues to grow at an exponential rate and not only drives the compute requirements, but also requires efficient solutions for movement and storage of data that is critical for overall performance. From device to cloud, new applications and use cases are continuously emerging. This transformation demands that we adapt our thinking and move from a hardware/program centric to a data/information centric approach, and to embrace new ways to compute. To keep pace in this dynamic environment, Moore’s Law and its impact have become more relevant than ever. The continued dimensional, materials and device scaling drives a renewed focus on the fundamental reliability physics of devices and materials, while novel architecture integration schemes and large-scale system design innovation motivates a more comprehensive understanding of resiliency at all levels of the system.

Dr. Michael (Mike) C. Mayberry is the chief technology officer at Intel Corporation. He is a senior vice president and general manager of Technology Development, where he is responsible for the research, development and deployment of next-generation silicon logic, packaging and test technologies that will produce future Intel products.

Since joining Intel in 1984 as a process integration engineer, Mayberry has held a variety of positions. As part of the California Technology Development team, he developed EPROM, flash and logic wafer fabrication processes. In 1994, he moved to Sort Test Technology Development, responsible for roadmaps and development of test processes for Intel microprocessors. In 2005, he moved to Components Research and was responsible for research to enable future process options for Intel’s technology development organizations. In 2015, he moved to Intel Labs and became responsible for Intel’s product-driven research. In 2018, he moved to the Technology Development group at Intel.

Mayberry received his bachelor’s degree in chemistry and mathematics from Midland College and his Ph.D. in physical chemistry from the University of California, Berkeley.​

Title: Power Semiconductor Reliability – An Industry Perspective on Status and Challenges

Abstract: Power transistors are an inevitable key component of nearly every power electronic system enabling the path to a greener environment through increased conversion efficiency. Silicon based power transistors are established on the market since more than half a century and the reliability and quality of those devices has matured to failure levels in the sub ppm range. The base for this achievement was a deep understanding of all the failure modes and their corresponding lifetime models.
The new wide band gap power semiconductor materials SiC and GaN that have entered the market during the past respective this decade are on much earlier points along a similar learning curve. It will be shown that the methodology how to qualify a power semiconductor technology remains essentially unchanged for the new devices, but of course all the new material and device specific failure modes need to be understood and modelled. The most important past learnings will be shown in this talk.
So everything is solved for the established silicon technologies? Also here we face new challenges due to the ever continuing pressure for cheaper devices mostly addressed by device shrinks. Pushing the devices closer and closer to their physical limits of course also requires refining and improving the established models in order to tailor the exactly right amount of safety margin. Additionally increasing power and current densities on die level require new package concepts leading to potential new failure modes.
Finally, we will conclude with some examples on a general trend observed: Fitting the devices as good as possible to the target applications and their respective requirements is leading to the need for an increased focus on application reliability testing.

Dr. Oliver Häberlen received his M.S. and Ph.D. degree in physics from the University of Munich and Technical University of Munich respectively.
He is currently employed with Infineon Technologies Austria AG as a Senior Principal for Power Transistor Technology and heading the group for advanced technology concepts evaluating future silicon and wide band gap (SiC, GaN) power device concepts for improved energy conversion solutions. His research areas include low and medium voltage trench power MOSFETs, high voltage super junction devices, GaN power devices and power device reliability.
He is a senior member of IEEE and member of the IEEE EDS Power Devices and ICs Technical Committee. He also served as Technical Committee member for IEDM (International Electron Devices Meeting) and ISPSD (International Symposium on Power Semiconductor Devices and ICs) and is the General Chair of the ISPSD conference in 2020. He is author and co-author of over 100 international patents and patent applications in the field of power semiconductors.

Title: IoT End-node Device: Built to Last

Abstract: End-node IoT devices are aimed to ubiquitous adoption, with projections of over a trillion installed devices within the next 5-10 years. This translates to requirements such as low-energy consumption and long product life cycles while meeting demanding low-cost constraints. From the engineering point of view, upgradeability, security and reliability are among the main issues to solve. Traditional design techniques based on worst case analysis do not provide the required level of optimization in this case which in turn provides ample opportunities for more innovation.
In this keynote, we will show how knowledge of the usage context and application must be used to achieve this complex and multi-faceted goal. Moreover, the fact that these devices are almost always wirelessly connected to the cloud, can be used to our advantage for monitoring and improving their lifetime in the field via methods such as machine learning.

As Silicon Labs’ Chief Technology Officer, Alessandro Piovaccari is responsible
for the company’s product and technology research and development. Alessandro
joined Silicon Labs in 2003 to design the company’s single-chip FM radio
products, which have surpassed 1.5 billion device shipments. He co-architected
Silicon Labs’ single-chip TV tuner IC, used by nine of the world’s top ten TV
makers, with more than 70 percent market share and 1.25 billion unit shipped.
Previously, Alessandro worked as a research scientist at Tanner Research,
joining the company in 1997 to develop CMOS neuro-inspired image processors.
From 1998 to 2003, he was a member of the design services team at Cadence
Design Systems, focusing on CMOS RFICs and high-speed SerDes IP development.
Alessandro holds 38 patents and is a Senior Member of IEEE, a Full Member of
AES, and a Member of the Forbes Technology Council. Alessandro received Laurea
and PhD degrees in electronic engineering and computer science from the
University of Bologna in Italy and a Post-Master’s Certificate with Honors in
electrical engineering from Johns Hopkins University. He also serves as a board
member for the Skillpoint Alliance, a member of the advisory council of UTeach
Natural Sciences at The University of Texas at Austin, College of Natural
Sciences, an advisor for the Center for Leadership Education, G. W. Whiting
School at John’s Hopkins University, and he is an IEEE CICC Conference steering
committee member.