Distributed Wind Energy

Distributed wind could potentially provide electricity to remote, rural, and island power systems that exist largely off the main electric grid.

Determining the viability of using wind turbines as a source of distributed energy is an important undertaking with broad impact for the nation. Sandia National Laboratories researchers seek solutions to challenges faced by parts of the country that cannot be consistently powered by a traditional electric grid. Unlike traditional wind farms that feed energy to grid-connected transmission lines, wind turbines used for distributed energy are in close proximity or even directly connected to the end user or customer.  

In 2022, Sandia opened a new, custom-built wind turbine emulator at its Distributed Energy Technologies Laboratory. The emulator, which mimics actual wind turbines at Sandia’s Scaled Wind Farm Technology Site near Lubbock, Texas, is used to study how real wind farms behave under multiple weather conditions and load demands, and whether they can be efficiently used as a source of distributed energy for consumers who live near the farms.

The distributed wind program at Sandia National Laboratories focuses on several key areas to advance the field of distributed wind energy. This includes developing advanced controls for distributed wind turbines to optimize performance and reliability, exploring how distributed wind can provide essential grid services to enhance stability, and implementing optimization techniques to maximize energy output and efficiency. Additionally, the program conducts rigorous testing of distributed wind power converters to ensure they meet industry standards and perform reliably under various conditions. It also investigates the integration of distributed wind in microgrid design, facilitating seamless connections with other energy sources, and provides technical assistance to the distributed wind industry, helping stakeholders navigate challenges and implement effective solutions. Through these efforts, Sandia aims to foster innovation and collaboration, making distributed wind energy a viable and resilient power source for the nation.  

Related Projects

Microgrids, Infrastructure and Advanced Launchpad (MIRACL)

Wind Hybrid Integration Platform (WHIP)

Defense and Disaster Deployable Turbine (D3T)

Wind Interconnection Standards Platform (WISP)

Distributed Wind Aerolastic Modeling (dWAM)

Rural and Agricultural Income and Savings from Renewable Energy (RAISE)

Puerto Rico 100-Distributed Wind (PR100-DW)

Interconnection Innovation e-Xchange (i2x)

Resources

Aeroelastic Validation of the Sandia Offshore Wind Energy Simulator (OWENS) for
Vertical-Axis Wind Turbines

An Advanced Voltage Regulation Control for Distributed Wind Turbine Generators

An Assessment of Wind-Hybrid Microgrids in Puerto Rico Using Microgrid Design Toolkit

Cooperative Multi-Agent Reinforcement Learning Method for Fast Voltage Regulation using
Distributed Wind Turbine Generators

Coordinated, Data-Driven Voltage Regulation in Wind-plus-Solar Power Distribution Systems with Energy Storage

Development and Validation of a Wind Turbine Generator Simulation Model

Development of a Wind Turbine Generator Volt-Var Curve Control for Voltage Regulation in Grid Connected Systems

Development of a Wind Turbine Generator Volt-Var Curve Control for Voltage Regulation Using Power Hardware-in-the-Loop

Exploring the interplay between distributed wind generators and solar photovoltaic systems

Field-Calibrated Aerodynamic and Electromechanical Dynamic Simulation of a Bergey Excel 15 Wind Turbine for Distributed Generation

Increasing the Penetration of Distributed Wind in an Isolated Microgrid Through Data-driven Frequency Regulation using Reinforcement Learning

Hosting capacity considerations for the combination of wind and solar on distribution electric power systems subject to different levels of coincident operations

Method for using spectral flow data to predict vortex-induced vibration onset of static structures

Microgrid Design Toolkit Optimization of Wind-PV Hybrid Microgrids for Energy Resilience in Puerto Rico

Model Characterization and Frequency Regulation in Wind-Diesel Hybrid Microgrids

Reactive Power Control for Fast-Acting Voltage Regulation of Distributed Wind Turbines Using
Reinforcement Learning

Unintentional Islanding Detection for Type-1 Wind Turbine Generators using Feeder Protection Relays: A Hardware-in-the-Loop Test

Volt-Var Curve Control Using Wind Turbine Generators and Photovoltaic Inverters for Voltage Regulation

Take a virtual tour of Sandia’s Distributed Energy Technologies Laboratory.

Work with us

We partner with large and small businesses, universities, and government agencies. With multiple agreement types to select from, partners can access world-class science, engineering, experts, and infrastructure.

Partners

Idaho National Laboratory

National Laboratory of the Rockies

Pacific Northwest National Laboratory

Contact

Geoff Klise, Wind Energy Technologies
gklise@sandia.gov