Some of our ongoing and past projects:
Model-Free Operating Envelopes at NMI Level
A project funded by C4NET
This 2-year project led by Prof Ochoa, Prof Alpcan and Prof Leckie from the School of Computing and Information Systems, will provide the technical foundations for distribution companies to estimate the maximum power exports or imports of individual customers (also known as operating envelopes) without employing electrical models of low voltage (LV) circuits but, instead, exploiting primarily historical smart meter data.
Australian Research Plan for the G-PST Topic 4 ‘Planning’ and Topic 8 ‘Distributed Energy Resources’
These two short projects, led by Prof Mancarella and Prof Ochoa, respectively, will produce research plans for the next 10 years for Australia in the areas of planning and distributed energy resources. Here is the news release from CSIRO.
Deployable Adaptive Smart Grid (DASG) Phase 2
This 21-month project, led by Prof Ochoa and Dr Vrakapoulou, investigates the benefits and most suitable control strategies of smart grid technologies to help Defence improve the reliability, fuel efficiency, and logistical aspects associated with the electrical infrastructure of their deployed forces.
This 2.5-year project involves Prof Ochoa and Prof Mancarella. Project EDGE is a world-first project that brings together the spectrum of relevant stakeholders across the electricity value chain: customers, DER owners, aggregators, distributors, the system/market operator and researchers. Several innovations will be demonstrated through trials that will test these operating envelopes and the trading of local services. This is crucial to understand the complexity, interactions and challenges that distribution companies will face globally as they accommodate the widespread adoption of DER. Project EDGE will also inform ongoing efforts on future electricity market design, particularly so-called two-sided markets.
This multi-disciplinary project involves Prof Mancarella, Prof Ochoa and colleagues from the Department of Infrastructure Engineering, Dr Lavieri and Prof Sarvi, as well as multiple Australian DNSPs. The project will explore, with a range of both network-related and consumer-related research methodologies and tools, customer acceptance and expectations around electric vehicles (EVs), distribution network impacts from unmanaged EVs, distribution network integration of EVs using active management strategies, and techno-economic network and system integration of EVs.
Advanced planning of PV-Rich Distribution Networks
This project run from February 2019 to February 2021 and was led by Prof Ochoa. This project investigated, using high-fidelity models, how distribution companies (known as Distribution Network Service Providers (DNSPs) in Australia) can make the most of their networks to facilitate high penetrations of residential solar PV. Ultimately, we provided a series of planning recommendations to help DNSPs in Australia, and internationally, take adequate planning actions that facilitate the widespread adoption of residential PV in a cost-effective and practical manner in the short-to-medium and long terms. We also provided recommendations for DNSPs that wish to carry out advanced PV hosting capacity calculations to enable more accurate assessments of connection requests and/or potential solutions using model-based and smart meter-driven approaches.
Deployable adaptive smart grids
This short project carried out in 2019 and led by Prof Ochoa produced the initial studies to determine the potential benefits that smart grid technologies could bring to Defence in terms of reliability, fuel consumption, and deployment size and weight.
Solutions for increasing PV hosting capacity
A collaboration with Electric Power Research Institute (EPRI, USA)
In 2018, led by Prof Ochoa, collaborations started with the Electric Power Research Institute (EPRI, USA) to help EPRI develop advanced distribution planning tools that can assess the performance of different PV-based integration solutions. The outcomes of the project “Assessment of Integration Solution Methods for Increasing PV Hosting Capacity”, finished in 2019, will help distribution network operators to quickly determine the most cost-effective, integration solutions for high penetrations of medium-scale PV systems across large network areas and, hence, increase the corresponding hosting capacity.
Energy policy case study
In 2017, the Melbourne Energy Institute was engaged by the Finkel Review to perform security assessment studies for future energy scenarios of the Australian National Electricity Market (NEM). The outcomes of the research work, led by Prof Mancarella, were published in the report Power System Security Assessment of the Future National Electricity Markets. The report discussed fundamental principles of secure operation of low-inertia power systems and demonstrated the use of frequency response security constrained optimal power flow tools and their potential application to energy markets in a system dominated by renewable energy sources and low-carbon technologies that are asynchronously connected to the system.
Solar PV impacts in Australian HV and LV networks
A collaboration with AusNet Services
In 2016, collaborations started with the Australian Distribution Network Service Provider, AusNet Services, looking at the impacts of widespread residential solar PV as well as potential solutions. To date, Prof Ochoa has led the projects “HV-LV Analysis of Mini Grids Clusters” and “Solar PV Penetration and HV-LV Network Impacts”. These projects have already produced key insights on the requirements for detailed HV and LV network studies.
Port Lincoln Virtual Power Plant
Prof Mancarella has been engaged by Hydrogen Utility (H2U) to carry out techno-economic modelling and demonstrate the technical and economic feasibility of the first hydrogen-based multi-commodity virtual power plant at Port Lincoln in South Australia. The project takes place in a network-constrained area with high potential penetration of solar and wind energy resources whereby electrolyzers will be used to produce hydrogen and ammonia for multiple purposes, including active network management, energy storage, export of zero-carbon fuels, supply of zero-carbon refuelling stations, fast frequency response, and frequency control and system restart ancillary services.