Events

Mar 23

Unveiling and Leveraging the Hidden World

W375 Westgate Building
10:00AM

Just as Newton observed a falling apple and uncovered the law of gravity, unveiling and leveraging the latent mechanisms behind observational data lies at the core of scientific discovery. This talk studies when and how latent variable models can be identified and exploited from purely observational data. I present a general theoretical framework showing how a structural view of the latent process yields nonparametric identifiability guarantees under realistic assumptions, and how these guarantees extend to flexible, task-driven objectives while leading to practical learning principles that benefit frontier models. I then demonstrate how leveraging identifiable latent mechanisms improves trustworthiness and effectiveness in both digital and embodied agents. These insights provide a principled path beyond the bottleneck of correlations fitting that cannot be resolved by scaling alone, toward next-generation models with causal understanding and actions.

Additional Information:

Yujia Zheng is a PhD candidate at Carnegie Mellon University, working in the causal learning and reasoning group advised by Prof. Kun Zhang. His research focuses on trustworthy machine learning, causal representation learning, and causality-based learning. His work has been supported by the Meta AIM PhD Fellowship and recognized with best paper honorable mention, orals, and spotlights at leading venues such as NeurIPS and ICML. He leads the development of causal-learn, a widely used open-source platform for causal learning. He has served as Publicity Co-Chair of UAI 2022, Local Arrangements Co-Chair of UAI 2023, and Workflow Co-Chair of CLeaR 2025 and 2026.

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Mar 24

MIDDAS: Memory Integration and Data Dis-Aggregation

101 Electrical Engineering East
10:00-11:00 AM

Since the invention of the integrated circuit in 1958, the integration of exponentially more devices onto a single chip has transformed computing—yet memory remains largely separated from logic, resulting in a “memory wall”. Recent advances in memory research have introduced a variety of new memory technologies. My research focus, Memory Integration and Data Dis-Aggregation (MIDDAS), envisions a future where massive, diverse memories are physically integrated yet functionally store disaggregated data. MIDDAS encompasses a continuous spectrum of memory characteristics. This is exemplified by BRIDGE (Blended Retention-Indexed Diverse Gain cEll), a gain cell memory platform developed in my PhD research. The 2-transistor (2T) gain cell memory offers high density and CMOS integration compatibility. By introducing oxide semiconductor (OS) transistors with ultra-low leakage current (< 1e-17 A/µm), BRIDGE expands the design space to support retention times spanning microseconds to seconds. BRIDGE is demonstrated on fabricated N40 CMOS+X monolithic 3D integration chip with Atomic-Layer-Deposited (ALD) Indium Tin Oxide (ITO) FET. Hybrid gain cell (OS-Si) demonstrates 3x density and lower energy compared to high-density (HD) SRAM, scalable to N5 and beyond. Furthermore, integrating gain cells with non-volatile memories (e.g., RRAM) unlocks synergistic system-level benefits from device-circuit-architecture co-design, embodying the “1+1>2” philosophy where diverse memory technologies collaboratively enhance system functionality through integration. MIDDAS repositions memory as a scalable, intelligent toolbox for AI-era computing, capitalizing on the predictability of memory access, bridging device innovation with software demands.

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Mar 27

Grid Energy Storage: Technologies and Applications

Hammond Building, Room 220
1:25 – 2:35 p.m.

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Mar 31

Ultra-wide Band Gap Materials and Devices for RF, Power and Extreme Environment Applications

101 Electrical Engineering East
10:00-11:00 AM

Radio frequency (RF) and power electronics play a critical role in our daily lives. RF electronics enables high speed wireless communication (5G, 6G etc.), broadcasting, radars etc. Power electronics is now becoming a necessity for new applications such as electric vehicles, energy efficient data centers, motor drives etc. Additionally, these technologies are required in the defense sector as well to gain tactical advantage. For example, RF electronics is needed for radars, satellite communications etc. Power electronics enables lighter vehicles such as electric ships, electric aircraft, reduced power storage overhead etc. These applications are also coupled with extreme environments found in hypersonic jets, space exploration etc. Therefore, these applications require continuous improvement as well as new functionalities over incumbent technologies. In this regard, ultra-wide band gap materials are emerging as a new class of materials to serve these applications. In my talk, I will go over the advances made by our team (as well as in the field) to make these materials a reality in RF, power and extreme environment applications.

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May 22

AI Data Center Integration to Power Grids Workshop: Opportunities and Challenges


102/103 ECoRE

The rapid expansion of AI data centers, cryptocurrency mining operations, and hydrogen production facilities is creating unprecedented electricity demand on power grids. These large, fast-growing loads pose new challenges for planning, operations, and reliability—prompting heightened attention from utilities, regulators, OEMs, and grid operators. This all-day workshop will bring together leading experts from industry, government, and academia to examine the emerging implications of large-load integration and discuss pathways to maintain a stable and resilient grid. The event is open to the Penn State community and invited external partners, and is designed to foster meaningful dialogue among the stakeholders shaping the future of power systems.

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About

The School of Electrical Engineering and Computer Science was created in the spring of 2015 to allow greater access to courses offered by both departments for undergraduate and graduate students in exciting collaborative research fields.

We offer B.S. degrees in electrical engineering, computer science, computer engineering and data science and graduate degrees (master's degrees and Ph.D.'s) in electrical engineering and computer science and engineering. EECS focuses on the convergence of technologies and disciplines to meet today’s industrial demands.

School of Electrical Engineering and Computer Science

The Pennsylvania State University

207 Electrical Engineering West

University Park, PA 16802

814-863-6740

Department of Computer Science and Engineering

814-865-9505

Department of Electrical Engineering

814-865-7039