I am a Lecturer in the Department of Electrical and Electronic Engineering at Imperial College London, where I was an EPSRC Innovation Fellow from 2018 to 2020. Before being an academic, I was with General Electric (GE) Global Research Centre in Shanghai, where I led and participated in a series of R&D projects on the integration of renewable power into grids.
My research career started with power-electronic converters and control for solar power systems. The IPs generated from my early work have been translated into a spinout (Hoymiles) listed in Shanghai Stock Exchange. After joining Imperial, my research interests have been extended to power-electronics-based power systems, including power-electronic technologies to support power system stability, and system stability analytics considering the behaviour of power electronics. I recently opened another thread of research on the numerical and computational methods for power system analysis and simulation. A detailed description of my research work can be found here. A list of my publications and citations is available at Google Scholar. I hold seven patents including six Chinese patents and one US/EU patent.
Besides my main research work, I have hobbies in software and hardware development (and hacking), especially in real-time computing and digital twins. I'm one of the three international maintainers for the open-source real-time operating system (RTOS) RT-Thread. I'm a co-founder of the open-source power system analysis/simulation toolbox Simplus Grid-Tool. I created and am commercialising a real-time digital twin system named Simplus Real-Time.
To PhD Students
I am recruiting talented PhD students who have interests in power electronics, power systems, and real-time computing. A candidate is expected to have a master's degree in Electrical and Electronic Engineering, Control (Automation), Computer Science, Maths, Physics, and other related disciplines. I have a fully-funded PhD studentship available to international and home-fee students. I also support the application of departmental and college studentships. The research topics for potential PhD students include but are not limited to:
- Numerical computation for dynamical analysis and simulation of stiff and large-scale power systems.
- Power-electronic technologies to support power system stability.
- Model-data-driven methods for stability analysis of power-electronic-based power systems.
Li Y, Green TC, Gu Y, 2023, The intrinsic communication in power systems: a new perspective to understand synchronization stability, IEEE Transactions on Circuits and Systems. Part 1: Regular Papers, Vol:70, ISSN:1549-8328, Pages:4615-4626
Gu Y, Green T, 2023, Power system stability with a high penetration of inverter based resources, Proceedings of the IEEE, Vol:111, ISSN:0018-9219, Pages:832-853
Li Y, Gu Y, Green T, 2022, Revisiting grid-forming and grid-following inverters: a duality theory, IEEE Transactions on Power Systems, Vol:37, ISSN:0885-8950, Pages:4541-4554
et al., 2021, Participation analysis in impedance models: the grey-box approach for power system stability, IEEE Transactions on Power Systems, Vol:37, ISSN:0885-8950, Pages:343-353
Gu Y, Bottrell N, Green TC, 2018, Reduced-order models for representing converters in power system studies, IEEE Transactions on Power Electronics, Vol:33, ISSN:0885-8993, Pages:3644-3654
Gu Y, Li W, He X, 2016, Analysis and control of bipolar LVDC grid with DC symmetrical component method, IEEE Transactions on Power Systems, Vol:31, ISSN:0885-8950, Pages:685-694
Gu Y, Li W, He X, 2015, Passivity-based control of DC microgrid for self-disciplined stabilization, IEEE Transactions on Power Systems, Vol:30, ISSN:0885-8950, Pages:2623-2632
Gu Y, Li W, He X, 2015, Frequency-coordinating virtual impedance for autonomous power management of DC microgrid, IEEE Transactions on Power Electronics, Vol:30, ISSN:0885-8993, Pages:2328-2337