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Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption

In curation License 

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 advanced metering infrastructure (AMI) devices and phasor measurement units (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 files contain 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.

Bad Data Detection AAE Testing Only Code.py

Python
Python code integrating the DNN-SE model with bad data detection testing and a voltage regulation control algorithm to manage over-voltage issues in the J-1 Feeder with... more
Not Available

Bad Data Injection Code.py

Python
Python code for injecting bad data into the dataset for testing.
Not Available

DSS Files.zip

DSS (OpenDSS) files containing power system models and simulation settings for analyzing the impact of high PV penetration and integrating state estimation and voltage ... more
Not Available

Data.zip

Data for the project, including test/train data.
Not Available

Integrated DNN-SE and COCPIT Code.ipynb

Python
Jupyter Notebook containing the code for the Deep Neural Network-based State Estimation (DNN-SE) model with a voltage regulation control algorithm to manage over-voltag... more
Not Available

Integrated DNN-SE and COCPIT Demo.mp4

Video demo of "Integrated DNN-SE Model and COCPIT Code".
Not Available

Manual.txt

Text file containing information on how to install the required packages to run the notebook
Not Available

Optimization Files.zip

Optimization files for the model.
Not Available

README.txt

ReadMe file describing the resources, usage, and results.
Not Available

Requirements.txt

Text file containing required packages to run the notebook.
Not Available

Results.zip

Results from the trained DNN-SE model run in CSV format.
Not Available

Trained Model.h5

Trained model data in HDF5 format.
Not Available

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.
Export Citation to RIS
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 advanced metering infrastructure (AMI) devices and phasor measurement units (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 files contain 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 Apr 2, 2025

Submitted Feb 17, 2025

Organization

Arizona State University

Contact

Yang Weng

yweng2@asu.edu

650.924.3618

Authors

Raja Ayyanar

Arizona State University

Anamitra Pal

Arizona State University

Lihao Mai

Arizona State University

Shiva Moshtagh

Arizona State University

Dhaval Dalal

Arizona State University

Evangelos Farantatos

Electric Power Research Institute

DOE Project Details

Project Name Artificial Intelligence for Robust Integration of AMI and Synchrophasor Data to Significantly Boost Solar Adoption

Project Number EE0009355

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