Assessment of Integrated MV-LV OE Calculations to Orchestrate DERs - OE Algorithm 3: Asset Capacity & Critical Voltage
This repository is part of the project Accelerating the Implementation of Operating Envelopes Across Australia funded by CSIRO. This project provided key metrics, recommendations, and guidance for distribution companies (known as Distribution Network Service Providers [DNSPs] in Australia) and AEMO (the Australian system operator) to assist them in improving and, hence, accelerating the use of Operating Envelopes (OEs) across Australia.
In this repository, we use interactive code via Jupyter Notebook and Python as well as a realistic integrated medium voltage and low voltage (MV-LV) network to demonstrate the process and necessary calculations for the Asset Capacity & Critical Voltage OE Algorithm with Integrated MV-LV Calculation produced by The University of Melbourne. This demonstration is useful for different stakeholders (e.g., DNSPs, AEMO, CSIRO, regulators, consultancy companies, technology providers) as it can help them familiarise with the corresponding algorithm and the required inputs as well as the pros and cons.
The Asset Capacity & Critical Voltage OE with Integrated MV-LV Calculations is an intermediate approach - it is more advanced than the Asset Capacity OE as both voltage and thermal aspects are considered, but less advanced than the Ideal OE - that is still relatively simple to be implemented since it does not need network models and only an extra monitoring (e.g., smart meter, temporary network meter) at the critical customer when compared to the Asset Capacity OE. In this OE approach, thermal issues are solved by estimating the spare capacity of MV and LV networks, while voltages issues are solved by estimating the voltage (using simple P-V sensitivity curves) at the critical customer of each LV network.
- Monitoring: At MV and LV head of feeders (P, Q, and V, all per phase), and at the critical customer of each LV network (net demand P, and voltage magnitude V).
- Electrical models: None.
Choose one of the options below to run the code.
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Make sure you have installed all the pre-requisites (Anaconda, dss_python, requirements). Otherwise, you will not be able to go through the repository.
- Download all the files using the green
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- Unzip the file and place the folder somewhere on your computer/laptop.
- To open the Jupyter Notebook file (extension
ipynb
) you need to:- Open Anaconda Navigator
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- Go inside the folder and open the
ipynb
file
All the instructions will be in the ipynb
file.
Arthur Gonçalves Givisiez ([email protected])
Andres Avila Rojas ([email protected])
Nando Ochoa ([email protected] ; https://sites.google.com/view/luisfochoa)
We acknowledge AusNet Services for providing the data listed below, which was essential to create this repository.
- Anonymised historical active power demand of some customers (smart meter data)
- The data (i.e., topology, impedances, distribution transformers) of one of their MV feeders (indirectly used by this repository)
More details of this data can be found in the Team Nando GitHub repository for Australian MV-LV Networks, files named "Network_4_Urban_CRE21" and "Profiles".
We also acknowledge the Australian Bureau of Meteorology for providing the solar radiation data.
Since this repository uses dss_python which is based on OpenDSS, both licenses have been included. This repository uses the BSD 3-Clause "New" or "Revised" license. Check all corresponding files (LICENSE-OpenDSS
, LICENSE-dss_python
, LICENSE
).