Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption
The overarching goal of the project is to create a highly efficient framework of machine learning (ML) methods that provide consistent and accurate real-time knowledge of system states from diverse AMI devices and PMUs in order to accommodate extreme levels of PV. For this goal, we aim at creating a highly efficient AI framework of machine learning (ML) methods that provide consistent and accurate real-time knowledge of system states from diverse AMI devices and PMUs. The file contains the integrated bad data detection with a pre-trained Deep Neural Network-based State Estimation (DNN-SE) model with a voltage regulation control algorithm to manage over-voltage issues in J-1 Feeder with high PV penetration.
Citation Formats
Arizona State University. (2025). Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption [data set]. Retrieved from https://data.openei.org/submissions/8345.
Ayyanar, Raja, Pal, Anamitra, Mai, Lihao, Moshtagh, Shiva, Dalal, Dhaval, and Farantatos, Evangelos. Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption. United States: N.p., 01 Feb, 2025. Web. https://data.openei.org/submissions/8345.
Ayyanar, Raja, Pal, Anamitra, Mai, Lihao, Moshtagh, Shiva, Dalal, Dhaval, & Farantatos, Evangelos. Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption. United States. https://data.openei.org/submissions/8345
Ayyanar, Raja, Pal, Anamitra, Mai, Lihao, Moshtagh, Shiva, Dalal, Dhaval, and Farantatos, Evangelos. 2025. "Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption". United States. https://data.openei.org/submissions/8345.
@div{oedi_8345, title = {Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption}, author = {Ayyanar, Raja, Pal, Anamitra, Mai, Lihao, Moshtagh, Shiva, Dalal, Dhaval, and Farantatos, Evangelos.}, abstractNote = {The overarching goal of the project is to create a highly efficient framework of machine learning (ML) methods that provide consistent and accurate real-time knowledge of system states from diverse AMI devices and PMUs in order to accommodate extreme levels of PV. For this goal, we aim at creating a highly efficient AI framework of machine learning (ML) methods that provide consistent and accurate real-time knowledge of system states from diverse AMI devices and PMUs. The file contains the integrated bad data detection with a pre-trained Deep Neural Network-based State Estimation (DNN-SE) model with a voltage regulation control algorithm to manage over-voltage issues in J-1 Feeder with high PV penetration.}, doi = {}, url = {https://data.openei.org/submissions/8345}, journal = {}, number = , volume = , place = {United States}, year = {2025}, month = {02}}
Details
Data from Feb 1, 2025
Last updated Feb 17, 2025
Submitted Feb 17, 2025
Organization
Arizona State University
Contact
Yang Weng
650.924.3618
Authors
Research Areas
Keywords
energy, power, AI, ML, machine learning, artificial intelligence, AMI, PMU, PV, photovoltaic, real-time, data, raw data, DNN, neural network, DNN-SEDOE Project Details
Project Name Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption
Project Number EE0009355