Research

Power systems: dynamics,
integration, and operations.

Energy storage and power systems research grounded in nonlinear dynamics, control, optimization, and machine learning.

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Power System Dynamics & Stability

How does the grid respond to disturbances, and how can we assess and improve its stability?

Nonlinear dynamics provides the foundation for our work on synchronization, stability regions, and online stability assessment. We study how disturbances spread through power networks and how control can improve their response.

Featured project · NSF · 2023–2027

NSF ASCENT: Online stability assessment for inverter-rich grids

ASCENT develops methods for online stability assessment, flexibility, and enhancement of power systems dominated by inverter-based resources, in collaboration with Cornell, Illinois Institute of Technology, Texas Tech, and NYPA.

Project details

Selected papers

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Inverter-Based Resource Integration

How can renewable generation and battery storage connect to and support the grid?

We model and control inverter-based resources, including renewables and battery storage. Our work connects grid-forming controls, hybrid plants, and system integration, with DOE ADAPT and RESPECT bringing these questions into plant control and storage demonstrations.

Featured project · DOE · 2021–2027

DOE ADAPT: Controls for hybrid PV plants

ADAPT develops asynchronous, distributed, and adaptive parameter tuning for hybrid photovoltaic plants, coordinating solar generation, storage, and inverter controls to support grid performance.

Project details

Selected papers

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Power System Operations & Economics

How should grid resources be scheduled, operated and valued under uncertainty?

We connect physical system operation with economic decisions: dispatch, storage scheduling, hybrid-plant bidding, and electricity prices. Optimization and forecasting help evaluate the value of flexible resources under uncertainty.

Featured project · DOE · 2026–2029 · $5 million

DOE RESPECT: Long-duration storage for critical facilities

Resilient Energy System based on Polymer Electrolyte and Ceramic Technology (RESPECT) develops a planned 100 kW / 1.2 MWh storage demonstration at Binghamton’s ES2 data-center test environment, addressing backup power, resilience, and peak-demand management.

Principal investigator: Ziang Zhang · Co-investigator: Zixiao Ma. Partners: Electrovaya USA, LiiON, Eaton, and Pacific Northwest National Laboratory.

Project details

Selected papers

Power system stability

Watching a network respond to a fault

140-bus model

Compare the simulated response with and without inverter-parameter tuning. Circles represent generators, with size indicating capacity.

Watch on Vimeo ↗Related publication

Energy storage & hybrid plants

Hybrid-plant scheduling across the grid

1,500-bus model

A simulated price comparison for 100 hybrid plants in a synthetic New York network, showing the bidding-based schedule and the baseline.

Watch on Vimeo ↗Related publication
Project focusSponsorProject period
New York models with high inverter penetrationNYSERDA2024–2026
Warehouse storage and distributed energy managementNYSERDA2019–2022

Major research sponsors

Selected research collaborators

Universities

  • Cornell University
  • Illinois Institute of Technology
  • Texas Tech University
  • Stony Brook University

National laboratories & public power

  • Brookhaven National Laboratory
  • National Renewable Energy Laboratory
  • Pacific Northwest National Laboratory
  • New York Power Authority

Industry

  • Electrovaya USA
  • LiiON
  • Eaton
  • SYNDEM
  • Charge CCCV

Collaborations span the RESPECT, ADAPT, and NSF ASCENT projects.