ProfessorMichael Negnevitsky

Battery thermal energy management

Converter-Driven Stability Analysis

System Essential Services to Underpin Tasmania Future Power System Architecture with High IBR Penetration

Thermal or electrical energy storage

Power Control of AI Factories for Improved Grid Stability

DER to support EV charging

Hydrogen integration into power systems

Grid frequency support

Fuel Cell DC-DC Power Converters

Emerging energy storage technologies

Mitigation of power system fault events

DC Nanogrids for Off-grid Communities

Design and Implementation of a Control System for Offshore DC Microgrids

Inverter Responses during System Faults

Modelling Pumped Hydro Storage Dynamics

Development of a Wave Driven Liquid Piston Based Compressed Air Energy Storage System

Performance Investigation and Enhancement in a Horizontal Latent Heat Thermal Energy Storage System

The Role of Grid-Scale and Distributed Resources in Electricity and Ancillary Services Markets

Uncertainty-tolerant Harmonic Analysis in Power Systems with High Penetration of Harmonic Sources Using Artificial Neural Networks

Investigation and Optimization of Thermal Management System for Lithium-ion Battery Packs used in EVs and HEVs

Combustion and Emission Characteristics of Hydrogen-Diesel Dual Fuel Engines

Performance and Emissions Analysis of a Diesel Engine Fuelled with Biodiesel and Waste Recycling Fuel

Cost-efficient Operation and Control of Isolated Power Systems

Power System Frequency Control using Battery Energy Storage Systems

Multi-criteria Analysis of Methanol Vehicle Deployment in China