Microgrid-Based Smart Grids: Artificial Intelligence and Internet of Things for Improved Resilience/Self-Healing

Hashem Nehrir

Dr. Hashem Nehrir
IEEE Life Fellow and Emeritus Professor
Electrical and Computer Engineering Department, Montana State University

Thu, 09/05/2024

Abstract: In this presentation, first, a brief history of the production and evolution of electricity will be presented, then an overview of our body of work on the application of artificial intelligence (AI)-based control techniques and Internet of things (IoT) for control and management of microgrids (MGs), which are considered the cornerstone of smart distribution grid, will be presented.

In general, MG power management is a multi-objective problem and may not have a single solution, and it is hard to solve with conventional analytic techniques. Multi-agent systems and bargaining games between the smart agents is presented to obtain a set of trade-off solutions (called Pareto-frontier), and the application of Nash bargaining solution (NBS) is used to directly obtain the “best trade-off solution” on the Pareto-frontier. In addition, an MG-based distribution system architecture for enhancing resilience and self-healing of distribution systems will be presented.

Bio: Dr. Nehrir is an Emeritus Professor in the Electrical Engineering Department at Montana State University. He has enjoyed more than 45 years of teaching and research. His research encompasses modeling, control, and power management of alternative energy power generation systems, load control (demand response) and application of artificial intelligence for microgrid power management for distribution system resiliency and self-healing.

Dr. Nehrir is a Life Fellow of IEEE and an invited Fellow of AAIA (Asia-pacific Artificial Intelligence Association). He is the 2010 recipient of the highest research award, the Charles & Nora Wiley Faculty Award for Meritorious Research, bestowed by Montana State University, and the 2016 recipient of IEEE Power & Energy Society’s Ramakumar Family Renewable Energy Excellence Award. He has lectured on his research and educational activities in more than ten countries around the globe.

Satellite communications Basics: From Orbits to Modulation (2024)

Ian Furniss

Ian Furniss
Hardware R&D Engineer
Keysight Technologies, Santa Rosa, CA

Thu, 04/18/2024

Abstract: Satellite communications experience many unique challenges in closing the link budget and providing reliable and resilient data throughput. These challenges range from overcoming the vast distances to managing atmospheric perturbations to generating unique modulations that are both spectrally and power efficient. In this discussion we will briefly cover these various topics including some modulation basics and dive into some of the only communications standards that exist for satellite communications and why they are used to overcome these challenges. This will lead to a brief introduction of some test and measurement solutions that enable these challenging networks to be created and maintained from concept to launch.

BIO: Ian is currently a Hardware R&D Engineer for Keysight Labs, helping develop and validate industry leading technologies for new signal analysis products. Prior to this Ian was an Applications Development Engineer in Keysight’s Space and Satellite Solutions group, focused on helping commercial and government entities accelerate their missions in the Low Earth Orbit (LEO) mega-constellation new space race. Ian’s areas of expertise spans signal analysis and generation, particularly tackling design and test challenges in Digital Video Broadcasting - Satellite Second Generation Extended (DVB-S2X), DVB - 2nd Generation Return Channel via Satellite (RCS2), custom Orthogonal Frequency-Division Multiplexing (OFDM), and 5th Generation Non-Terrestrial Networks (5G NTN) at frequencies from Ku- and Ka-band through V- and W-band and beyond.

Spiking Neural Networks: Learning Algorithms and Hardware Acceleration

Peng Li

Dr. Peng Li
Professor
ECE Department, UC Santa Barbara, Santa Barbara, CA

Thu, 04/04/2024

Abstract: Spiking neural networks (SNN), a class of brain-inspired models of computation, are well equipped with spatiotemporal computing power critical for a wide range of applications. Moreover, recent advancements in neuromorphic computing have led to large-scale industrial neuromorphic chips with promising ultra-low energy event-driven data processing capability. Nevertheless, major challenges are yet to be conquered to make spike-based computation a competitive choice for real-world applications. In this talk, first, I will present techniques for tackling major challenges in training complex SNNs by developing biologically plausible learning mechanisms and error backpropagation (BP) operating on top of spiking discontinuities. Second, SNN hardware accelerators, which provide an efficient dedicated computing platform for processing spiking workloads, will be discussed.

Bio: Peng Li received the Ph. D. degree from Carnegie Mellon University in 2003. He is presently a professor of Electrical and Computer Engineering at the University of California, Santa Barbara. His research interests are in integrated circuits and systems, electronic design automation, brain-inspired computing, and applied machine learning. Li’s work has been recognized by an ICCAD Ten Year Retrospective Most Influential Paper Award, four IEEE/ACM Design Automation Conference (DAC) Best Paper Awards, and best paper awards from ICCAD, ICCD, and ASAP, among other distinctions. A Fellow of the IEEE, he served as the Vice President for Technical Activities of IEEE Council on Electronic Design Automation (CEDA).

Artificial Intelligence Techniques for Design and Knowledge Discovery in Nanophotonics

Ali Adibi

Dr. Ali Adibi
Professor
School of ECE, Georgia Institute of Technology, Atlanta, GA

Thu, 03/14/2024

Abstract: A survey of the new artificial-intelligence (AI)-based approaches for analysis, design, optimization, and knowledge discovery in electromagnetic nanostructures will be presented. Recent advances in using both deep-learning (DL) techniques and machine-learning (ML) techniques and their application to practical problems will be covered. These techniques will not only enable more efficient designs of the electromagnetic nanostructures (e.g., metasurfaces), but also provide valuable insight about the physics of light-matter interactions in such structures. Details of the training process for these algorithms as well as the challenges and limitations of these techniques for different classes of nanostructures will be discussed. Knowledge discovery using these techniques includes the study of feasibility of a certain response from a given nanostructure and comparing the roles of different design parameters to facilitate the training process.

Bio: Ali Adibi is the director of Bio and Environmental Sensing Technologies (BEST) and a professor and Joseph M. Pettit chair in the School of Electrical and Computer Engineering, Georgia Institute of Technology. His research group has pioneered several structures in the field of integrated nanophotonics for information processing, sensing, and quantum photonic applications. He is the author of more than 230 journal papers and 550 conference papers. He is the editor-in-chief of the Journal of Nanophotonics, and the nanophotonic program track chair of the Photonics West meeting. He is the recipient of several awards including Presidential Early Career Award for Scientists and Engineers, Packard Fellowship, NSF CAREER Award, and the SPIE Technology Achievement Award. He is also a fellow of OSA, SPIE, and AAAS.

Photovoltaic Microinverters and Energy Storage Systems, 2024

Mark Baldassari

Mr. Mark Baldassari
Director, Codes and Standards
Enphase Energy, CA

Thu, 03/07/2024

Abstract: The presentation will cover how solar photovoltaic cells convert solar energy into usable power. The effects on energy production due to insolation (sunlight) and temperature. Simple solar systems covers traditional string inverters versus modern microinverters and discusses the safety benefits. Energy storage is discussed starting with the why storage is needed for several applications. A simple single line diagram is presented showing how PV and energy storage can be incorporated into a home. A quiz is presented to test the audience on the major topics presented.

Bio: Mr. Baldassari has over 40 years’ experience in engineering and product development and over 16 years with Enphase Energy, where he holds the position of Director, Codes and Standards. Currently, he actively participates in several Codes and Standards development groups both internationally and domestically. He is involved with the development of the National Electrical Code, product safety standards with Underwriters Laboratory, and international installation and safety standards. Mr. Baldassari has a bachelor’s degree in electrical and Electronic Engineering from California State University Sacramento.

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