ACRC Webinar: Peak/Valley DC-DC Power Supplies: From the Ground Up!

Speaker: Prof. Gabriel Rincon-Mora, Georgia Institute of Technology

Date: September 7, 2026, Monday

Time: 16:00 – 17:30 Israel Time

Location: Zoom

Language: English

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Abstract:

Switched-inductor power supplies are pervasive in electronics. This is because they deliver a large fraction of the power they draw from the input source with an output that is largely independent of the load. Keeping the output steady this way is ultimately the responsibility of the feedback controller. This talk uses insight and intuition to show how hysteretic, timed, and clocked peak/valley loops control their outputs and respond to sudden changes. The presentation also describes when sub-harmonic oscillations surface and how slope compensation suppresses them. It then shows how summing comparators work and how they can contract, offset, and compensate these control loops and how comparators limit their input-to-output translations in continuous conduction and output current in discontinuous conduction. With this background and understanding in hand, designing compact feedback controllers for switched-inductor IoT power supplies is not only possible but also more straightforward.

Bio:

Gabriel Alfonso Rincón-Mora is Motorola Solutions Foundation Professor, Fellow of the National Academy of Inventors (NAI), Fellow of the American Association for the Advancement of Science (AAAS), Fellow of the Institution of Engineering and Technology (IET), and Fellow of the Institute of Electrical and Electronics Engineering (IEEE). He’s received the IEEE Charles A. Desoer Technical Achievement Award, Distinguished Faculty Achievement Award, Charles E. Perry Visionary Award, Three-Year Patent Award, National Hispanic in Technology Award, IEEE Joseph M. Biedenbach Outstanding Engineering Educator Award, IEEE Outstanding Educator Award, Orgullo Hispano Award, Hispanic Heritage Award, State of California Commendation Certificate, and IEEE Service Award. His body of work includes 12 books, 8 handbooks, 4 book chapters, 44 patents, over 200 articles, over 26 commercial power-chip products released to production, 25 educational videos, and over 180 keynote addresses, distinguished lectures, and research seminars. URL: rincon-mora.gatech.edu.

The webinar is free but the registration is required. The Zoom link will be sent after registration.

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ACRC Webinar: From Assistants to Autonomous Agents: The Evolution of AI in Chip Design

Date: 29 July,2026
Time: 16:00 – 17:30 Israel time
Speaker: Asi  Sapir, Synopsys
Language: English
Location: Zoom
Abstract:
In 2017, DeepMind’s AlphaZero learned to play chess, Go, and shogi from scratch with no human game data, no hand-crafted heuristics, just the rules and three days of self-play. In Go, it beat AlphaGo, the system that had just defeated the world champion, 100 games to zero, discovering strategies that 3,000 years of human play had never produced. That moment was not just a milestone in game-playing AI. It was a preview of what is coming in every complex engineering domain.
This talk traces that same three-phase arc inside electronic design automation. Phase one is AI as optimizer: reinforcement-learning systems like DSO.ai and VSO.ai that search the implementation space more efficiently than human teams, delivering 25% power reduction and 4.5% frequency improvement on production designs. Phase two is AI as assistant and co-creator: the Synopsys.ai Copilot, which answers tool questions in natural language, generates Tcl and Python scripts on demand, creates RTL and testbenches from design specifications, and produces SVA assertions for formal verification. Phase three, where we are today, is AI as autonomous agent: systems that accept a goal (“autonomously improve this RTL for power and performance”), then plan, orchestrate, and execute multi-step EDA workflows with minimal human intervention.
Bio:
Asi Sapir is a hardware engineer and AI specialist at Synopsys, where he serves as Applications Engineering Sr Architect driving adoption of AI-powered EDA solutions. With 25 years of experience at Intel and three years at Synopsys, he brings deep expertise in logic design, RTL methodology, architecture, physical design, and design automation.
Asi works at the intersection of chip design methodology and artificial intelligence, helping engineering and research teams integrate reinforcement learning, generative AI, and agentic workflows into production environments. He holds a B.Sc. in Electrical Engineering from the Technion, Israel Institute of Technology, and speaks regularly on the evolution from AI assistants to autonomous agents in semiconductor design.
The webinar is free but registration is required! The zoom link will be sent after the registration.

ACRC Webinar: HLS Trojan Detection using Machine Learning Technique

Speaker: Prof. Anirban Sengupta, Indian Institute of Technology Indore (IIT Indore)

Date: June 29, 2026, Monday

Time: 16:00 – 17:30 Israel Time

Location: Zoom

Language: English

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Abstract: 

Hardware Trojans in high level synthesis (HLS) generated intellectual property (IP) designs pose significant security threats. The HLS frameworks, while enabling efficient hardware design from high-level descriptions to its respective register transfer level (RTL) counterpart, may introduce security vulnerabilities. These vulnerabilities allow malicious Trojan to be stealthily injected during phases like scheduling, allocation, and mux-interconnect design stage. Compromised HLS frameworks exacerbate this risk, potentially embedding backdoors or degrading IP operation in multiple ways. This presentation will discuss advanced HLS Trojan detection techniques based decision tree classifier-based machine learning model. The presentation will also focus on key hardware IP RTL features that need to be extracted and analyzed, for achieving high detection accuracy with zero false positives for specific trojans considered here, ensuring robust IP security.

Bio: 

Prof. Anirban Sengupta (SMIEEE, FIET, FBCS, FIETE, Ph.D.) is a full Professor in the Department of Computer Science and Engineering at Indian Institute of Technology (IIT) Indore. He has more than 340 publications and patents, including 7 books, to his credit. His is recipient of awards/honors/recognitions such as Distinguished Contributor of IEEE Computer Society, Distinguished Lecturer of IEEE Circuits and Systems Society, Distinguished Lecturer of IEEE Consumer Technology Society, Distinguished Visitor of IEEE Computer Society, ACM India Eminent Speaker, Fellow of IET, Fellow of British Computer Society, Fellow of IETE, IEEE Chester Sall Memorial Consumer Electronics Award, IEEE CESoc Outstanding Editor Award, IEEE CESoc Best Research Award from CEM, Best Research paper Award in IEEE ICCE 2019, IEEE Computer Society TCVLSI Outstanding Editor Award and IEEE TCVLSI Best Paper Award in IEEE iNIS 2017. He held/holds around 20 Editorial positions in IEEE/IET Journal boards. He is consistently ranked in Stanford University’s Top 2 % Scientists globally. Details available at: http://www.anirbansengupta.com/index.php

The webinar is free but registration is required. The Zoom link will be sent after registration.

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ACRC Webinar: Introduction to Integrated Photonics for non-Specialists

Speaker: Prof. Avi Zadok, Technion – Israel Institute of Technology

Date: May 10, 2026

Time: 16:00 – 17:30 Israel Time

Location: Zoom

Language: English

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Abstract: 

Silicon photonics is an essential, enabling technology for modern-day data centers and super computes. In this lecture, I will introduce the basic building blocks of silicon photonic circuits and discuss the current state-of-the-art, challenges and limitations, and comparative merits and drawbacks of this exciting technology. The lecture is intended primarily for non-specialists, interested in a technical introduction to the topic.

Bio:

 Prof. Avi Zadok obtained his Ph.D. in Electrical Engineering from Tel-Aviv University in 2007. He has been with the Faculty of Engineering, Bar-Ilan University between 2009-2024, and joined the Faculty of Electrical and Computer Engineering of the Technion in 2024. His research group is working on photonic integrated circuits with emphasis on silicon, fiber-optics, nonlinear optics, and opto-mechanics. Dr. Zadok published over 200 papers in scientific journals and proceedings of international conferences.

The webinar is free, but registration is required. The Zoom link will be sent after registration.

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ACRC Webinar: Neuromorphic Language Models

Date: April 13, 2026

Time: 18:00 – 19:30 Israel Time

Speaker: Prof. Jason Eshraghian, University of California, Santa Cruz

Language: English

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Abstract

The brain is the perfect place to look for inspiration to develop more efficient neural networks. Inspired by the recurrent dynamics of biological neurons, this talk will present several frontier reasoning LLMs developed in my lab, from software to device deployments. Trained end-to-end in an academic lab on a full production pipeline (data curation, pre-training, to post-training and alignment) these models surpass all leading LLMs from Meta, Google and every other over-resourced company in the ~10-billion parameter regime, despite being ~5x smaller. We have deployed several of our models on neuromorphic hardware at 2-watts, bringing SoTA-level reasoning from the datacenter to the edge.

Bio

Jason Eshraghian is an Assistant Professor and Fulbright Scholar in the Department of Electrical and Computer Engineering at the University of California, Santa Cruz. He is the developer of snnTorch, a Python library with over 500,000 downloads for training spiking neural networks. He is a dual-appointed IEEE CAS and EMBS Distinguished Lecturer, an Associate Editor of APL Machine Learning, the Chair of the IEEE Neural Systems and Applications Technical Committee, has been the recipient of seven IEEE Best Paper Awards, a Scientific Advisory Board Member of BrainChip, and leads the Neuromorphic Agents Team at Conscium.

The webinar is free, but registration is required. The Zoom link will be sent after registration. 

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ACRC Webinar: Mixed Signal Approaches to Machine Learning Hardware Accelerator for Inference Engines

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Date: March 18, 2026 – Wednesday

Time: 17:00 – 18:30 Israel Time

Lecturer: Prof. Bibhu Datta Sahoo, University at Buffalo

Language: English

Abstract: 

The rapid advancements in computing, communication, and networking technologies facilitated by the feature size scaling of transistors, have not only made connected devices, i.e., Internet-of-Things (IoT), possible but also resulted in volumes of data being generated by these devices, which has led to rapid advancements in the area of big-data analytics thereby ushering in a new era of artificial intelligence and machine learning hardware to make smart connected devices. We have reached an inflection point in the design of such smart connected devices: the machine learning hardware designer must look beyond conventional digital computing blocks and possibly revive analog computing. This has led to a new generation of analog designers who are combining conventional analog circuits with approximate computing techniques using conventional CMOS as well as emerging-devices compatible with CMOS to build energy-efficient systems. This talk begins with an overview of various Neural Network Architectures and the computing blocks needed to realize them. FPGA-based Convolutional Neural Network (CNN) architectures for energy-efficient inference engines for image/depth-image classification, and seizure prediction which also reduces the sensor-interface front-end power and the energy-per-bit needed to transmit the sensor information to the inference engine will be discussed next. Hardware techniques for memory augmented neural network (MANN) using novel magneto-electric FETs  (MeFET) will be discussed as well. Various analog dot-product computation methodologies, viz., conductance-based, charge-based, and gm-based will be discussed next. An oscillator-based mixed-signal Spiking Neural Network (SNN) architecture and techniques to facilitate energy-efficient training-on-the-edge will be presented.

Biography: 

Bibhu Datta Sahoo joined the faculty of the UB Department of Electrical Engineering as Professor in Fall 2023. He received the B.Tech. degree in Electrical Engineering from the Indian Institute of Technology (IIT), Kharagpur, India, in 1998, the M.S.E.E. degree from the University of Minnesota, Minneapolis, MN, USA, in 2000, and the Ph.D. E.E. Degree from the University of California, Los Angeles in 2009. From 2000 to 2006, he was with DSP Microelectronics Group, Broadcom Corporation, Irvine, CA, where he designed analog and digital integrated circuits for signal-processing applications. From December 2008 to February 2010, he was with Maxlinear Inc., Carlsbad, CA, where he was involved in designing RF Integrated Circuits for CMOS TV tuners. He has been a faculty at IIT Kharagpur, India for 6 years and Amrita University, India for 5 years.  His research interests include mixed signal circuit design, analog computing, and machine learning hardware. He received the 2008 Analog Devices Outstanding Student Designer Award and was the co-recipient of the 2013 CICC Best Paper Award. He was the Associate Editor of IEEE Transactions on Circuits and Systems-II from Aug. 2014 to Dec. 2015. Since Aug. 2019 he has been the Associate Editor of IEEE Open Journal of Circuits and Systems. He is one of the IEEE Circuits and Systems Society (CASS) Distinguished Lecturer for 2025-2026.

The webinar is free but registration is required.

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ACRC Seminar: High-Speed CMOS Silicon Photonic PAM4 Transceiver Front-Ends for Datacenter Communication by Prof. Samuel Palermo, Texas A&M University

Title: High-Speed CMOS Silicon Photonic PAM4 Transceiver Front-Ends for Datacenter Communication
Speaker: Prof. Samuel Palermo, Texas A&M University
Date: June 03, 2026 – Wednesday
Time: 10:30 – 11:30 Israel Time
Location: Room 608 Zisapel Building (New), Technion & Zoom: https://technion.zoom.us/j/95375331937
Language: English
Abstract:
Growing interconnect bandwidth demand in large datacenters requires energy-efficient optical transceivers that operate with four-level pulse amplitude modulation (PAM4) to enable high per-wavelength data rates. Further increases in bandwidth density is possible by leveraging wavelength-division multiplexing (WDM), which optical link architectures based on silicon photonic microring modulators (MRMs) and drop filters inherently enable. This talk covers high-speed PAM4 transmitter and receiver front-ends implemented in a 28nm CMOS process that are co-designed with these silicon photonic optical devices to enable energy-efficient operation. The transmitter utilizes an optical digital-to-analog converter (DAC) approach with two PAM2 AC-coupled pulsed-cascode high-swing voltage-mode output stages to drive the MRM MSB/LSB segments. A 3.42Vppd output swing is achieved when operating at 80Gb/s PAM4 with an energy efficiency of 3.66pJ/bit. The optical receiver utilizes a low-bandwidth input transimpedance amplifier followed by continuous-time linear equalizer, variable-gain amplifier stages, and a digital clock-and-data recovery system. 100Gb/s PAM4 operation is achieved with -6.4dBm sensitivity at 1.4×10-4 BER and 1.32pJ/bit energy efficiency.
Bio: 
Samuel Palermo (S’98-M’07-SM’17) received the B.S. and M.S. degrees in electrical engineering from Texas A&M University, College Station, TX in 1997 and 1999, respectively, and the Ph.D. degree in electrical engineering from Stanford University, Stanford, CA in 2007. From 1999 to 2000, he was with Texas Instruments, Dallas, TX, where he worked on the design of mixed-signal integrated circuits for high-speed serial data communication. From 2006 to 2008, he was with Intel Corporation, Hillsboro, OR, where he worked on high-speed optical and electrical I/O architectures. In 2009, he joined the Electrical and Computer Engineering Department of Texas A&M University where he is currently the J. W. Runyon Jr. Professor. His research interests include high-speed electrical and optical interconnect architectures, RF photonics, radiation-hardened electronics, and AI computing hardware. Dr. Palermo is a recipient of a 2013 NSF-CAREER award. He is a member of Eta Kappa Nu and IEEE. He is currently an associate editor for IEEE Journal of Solid-State Circuits and has previously served in this role for IEEE Solid-State Circuits Letters and IEEE Transactions on Circuits and System – II. He has also previously served as a distinguished lecturer for the IEEE Solid-State Circuits Society and on the IEEE CASS Board of Governors. He was a coauthor of the Jack Raper Award for Outstanding Technology-Directions Paper at the 2009 International Solid-State Circuits Conference, the Best Student Paper at the 2014 Midwest Symposium on Circuits and Systems, an Outstanding Student Paper Award at the 2018 Custom Integrated Circuits Conference, and the Best Student Paper Award at the 2024 Opto-Electronics and Communications Conference. He received the Texas A&M University Department of Electrical and Computer Engineering Outstanding Professor Award in 2014 and the Engineering Faculty Fellow Award in 2015.

ACRC Webinar: Radiation Hardening By Design

Speaker: Tuvia Liran

Date: February 16, 2026 – Monday

Time: 16:00 – 17:30 Israel Time

Language: Hebrew

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Abstract:

Chips are exposed to energetic particles, but in some applications, such as space, the doze of particles is high and hazardous. Protons, ion, neutrons, alpha/beta/gamma particles and X-ray might degrade the performance, shorten lifetime, and might cause hard or soft failures.

The lecture will describe the failure mechanisms and key mitigation techniques. The common mechanisms are TID, SEL, SEU, but there are additional mechanisms that might affect special applications. It is typically not practical to eliminate the failures, but it is practical and achievable to mitigate them significantly.

Mitigation the radiation effects can be done by process, architecture/logic/circuit/layout design, by software/firmware, and by system level mechanical/hardware/software techniques. The key techniques will be presented. The most common mitigation technique, which is implemented during the chip design flow, is named Radiation Hardening By Design (RHBD). This is the main scope of the lecture.

Advanced semiconductor technologies are inherently more immune to radiation effects. However, some circuits, especially those operate at relatively high voltage, might be under-protected, unless mitigated by simple design techniques. Some tips will be provided.

Bio:

Tuvia Liran had >40 years of experience in VLSI development, including analog & digital design, process, testing, Q&R, packaging and more. He wrote 15 patents, mostly on VLSI circuits.
He graduated Bsc in physics, and EE and Msc in electronics from the Technion in the eighties, and since then he was in VLSI industry, and mentoring projects in VLSI lab.
He was co-founder of Ramon.Space, where he was responsible, as CTO, for the development of the technologies for space applications. The components demonstrated extremely high immunity to all radiation effects, and company’s products had been selected for many space missions, including missions to Mars, Asteroids, Jupiter, Saturn, Sun, and many satellites.

He served as navigator in IAF during his military service.

The webinar is free but registration is required. The Zoom link will be sent after registration.

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ACRC Webinar: “Spiking Manifesto” – a new way to build and train artificial neural networks

Date: February 11, 2026 – Wednesday

Time: 17:00 – 18:30 Israel Time

Speaker: Eugene Izhikevich, Founder and CEO of SpikeCore

Language: English

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Abstract: 

Current AI models are a thousand times less energy-efficient than the brain. These models use artificial neural networks (ANNs) requiring GPUs for multiplication of huge matrices. In contrast, spiking neural networks (SNNs) within the human brain do not employ matrix multiplication and dissipate orders of magnitude less energy.

In this talk, Prof. Eugene Izhikevich presents the Spiking Manifesto: a framework for thinking about popular AI models in terms of spiking networks and polychronization, and for interpreting spiking activity within the brain as nature’s way of providing look-up tables. This approach offers a novel approach to develop ANNs in hardware and to build AI models based on innovative architectures. The spiking manifesto provides a path to thousandfold improvements in energy efficiency.

Biography: 

Founder and CEO of SpikeCore, San Diego, California
Founder and Chairman of the Board of Brain Corp, San Diego, California
Founder and Editor-in-Chief of Scholarpedia – the peer-reviewed encyclopedia
Publications: https://scholar.google.com/citations?user=1JeBX-IAAAAJ

The webinar is free, but registration is required. The Zoom session link will be sent after registration. 

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ACRC Webinar: Quantum Supercomputers

Title: Quantum Supercomputers
Speaker: Dr. Yonatan Cohen, Co-founder and CTO of Quantum Machines
Date: January 13, 2026, Tuesday
Time: 16:00 Israel Time
Abstract: 
Quantum computing represents a paradigm shift in how we process information, leveraging the principles of quantum mechanics to solve problems that are intractable for classical systems. In this talk, we will begin by exploring the theoretical foundations of quantum computation—how qubits, superposition, and entanglement enable exponential computational power. We will then transition to the practical aspects of building quantum computers, examining the engineering challenges and innovations that make these systems possible. Next, we will introduce the work we do at Quantum Machines, where we develop advanced control and orchestration solutions that enable and accelerates the development of useful quantum computers as well as bridge the gap between quantum and classical computing. We will discuss our vision for hybrid architectures and how these technologies pave the way toward scalable quantum supercomputers, unlocking unprecedented capabilities for science and industry.
Biography: 
Yonatan Cohen is the Co-founder and CTO of Quantum Machines (QM), the global leader in hybrid classical-quantum control solutions. An entrepreneur and physicist specializing in quantum electronics and advanced microfabrication, he previously co-founded and served as Managing Director of the Weizmann Institute of Science’s flagship entrepreneurship program, where he helped researchers translate deep-tech breakthroughs into commercial ventures. Yonatan completed his MSc and PhD in Prof. Moty Heiblum’s laboratory at the Weizmann Institute, conducting research on quantum electronics, superconducting–semiconducting hybrid devices, and nanoscale fabrication. His work has been published in leading peer-reviewed journals. He holds a BSc in Physics and Mathematics from the University of Washington and is a recipient of the Ruth and Prof. Abraham (Edek) Blaugrund Prize for Academic Excellence (2018).

A link to the Zoom session will be provided after registration.  

Important: Participation is free of charge, but registration is required.