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Research

To advance cutting-edge research, CREATE fosters a vibrant scholarly community that brings together students, faculty, and industry professionals to exchange innovative ideas and insights in the areas of power/energy and autonomy.

Thriving Research

With interdisciplinary collaboration across different academic programs, CREATE supports the development of over 40 graduate students and emphasizes research that bridges academia and industry and promotes impactful, real-world solutions. By engaging students in interdisciplinary projects and industry collaborations, CREATE cultivates an environment where scholarly growth and innovative research thrive, preparing students to become leaders in their fields and driving forward advancements in science and engineering.

 

Resilient Power and Energy Systems

Laptop featuring energy graphing software

We use energy to heat/cool our buildings and homes, run our machines and electronics, and transport goods and people. Without energy, society as we know it would cease to exist. Yet, the use of fossil fuels for generating this energy during most of the period that modern society developed is unsustainable- fossil fuels are a finite resource, and their combustion is impacting global climate change with devastating consequences. CREATE will focus on the most fundamental and important long-term societal problem— how to enable modern society through sustainable and intelligent energy systems.

Emerging power and energy systems are undergoing wholesale changes due to rapid renewable energy integration driven by aggressive decarbonization and electrification policies in Vermont and beyond. To keep up with renewables, these systems will increasingly have to rely on sensors, data, optimization algorithms, and feedback control loops to ensure reliability, responsiveness, and resilience.

Faculty Lead

Mads Almassalkhi, Associate Professor, Electrical and Computer Engineering


Autonomy and Control 

Robotic arm in ¶¶Òõ̽̽'s autonomy lab

Autonomous technologies and control systems play pivotal roles in modern society across various domains: Transportation, manufacturing, healthcare, agriculture, energy, aerospace, and security and defense systems. Overall, autonomous technologies and control systems are transforming industries by increasing efficiency, reducing human error, improving safety, and enabling new capabilities that were previously unthinkable. In recent decades, engineered systems have become increasingly connected and complex and so the existing methods for control and decision making are no longer applicable. Motivated by the availability of vast amounts of data from these systems, CREATE will focus on research around data-driven control of complex systems.

Faculty Lead

Hamid Ossareh, Associate Professor, Electrical and Computer Engineering

Our Research Facilities

Hybrid Solar Test Center facility
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Develop and maintain a hybrid solar test center (HSTC) facility at the McNeil power plant to field-test new approaches to autonomous energy system development, optimization, and control.

 McNeil Generating The McNeil Generating Station in Burlington

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Accelerated Testing Laboratory
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Develop and create the Accelerated Testing Laboratory (ATL) on the ¶¶Òõ̽̽ campus for validating and testing energy systems and autonomous technologies for hybrid energy systems (HES), such as solar PV panels, energy storage, inverters, and electrolyzers.

Packetized Energy technology developed at ¶¶Òõ̽̽

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Next-generation Energy Systems Simulation Testbed facility
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Design and develop a Next-generation Energy Systems Simulation Testbed (NES2T) facility on the ¶¶Òõ̽̽ campus to facilitate both research and education in energy system resilience, autonomy, cyber-security, and optimization.

View of the Control Room at VELCO

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Autonomous and Intelligent Systems Research Laboratory (AIR Lab) facility
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The Autonomous and Intelligent Systems Research Lab (AIR Lab) is driving the future of intelligent systems. Our research on data-driven and model-free estimation and control algorithms enable engineered systems to adapt to complex, real-world environments, pushing beyond traditional boundaries.

View of autonomous ground and air vehicles used in the AIRLab

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