Dr Guanchen Li he/him

Photo of Dr Guanchen Li
Multiscale engineering of materials and devices using physics-based models and machine learning

Lecturer

James Watt School of Engineering
Research interests:
Irreversible thermodynamics, Multiphysics simulation, Electrochemical devices, Interface, Optimisation, Machine learning, Quantum thermodynamics, ab initio simulations
Research fields:
Energy conversion and storage, Digital twins, Chemomechanical failure, Battery management in intelligent devices, Micro-battery, Point-of-care health, Wind turbine, Sonochemistry
Why do you want to join the DiveIn community?
This CDT provides a unique opportunity to do interdisciplinary research. I have several ongoing projects that fit the scope well, such as Batteries for networks, intelligent battery controls, point-of-care diagnosis, battery simulation, wind turbine digital twins, nanoscale heat transfer and ultrasound water treatment.
Personal profile:

I am interested in physics-based modelling and algorithms. My research covers fundamental theories, computational methods and practical applications.

Science:

My group exploits multiphysics/multiscale (atomistic-to-continuum) modelling and data-driven methods to advance the design and manufacture of materials and devices. I aim to connect physics, data science, sensors & controllers, and advanced characterisation in a way that both AI and humans understand.

I am particularly interested in modelling irreversible dissipations across scales — from the quantum to the device level. Applications include electrochemical systems, sonochemical reactors, wind turbines, engine cycles, point-of-care devices and semiconductors.

I seek to leverage my expertise in multiphysics simulation to collaborate closely with experimentalists and AI experts.

CDT projects:

I have a computational physics background with extensive experience in interdisciplinary collaboration. I am keen to supervise collaborative projects that bridge modelling and experiments, or physics and data science. I aim to develop projects that combine theoretical rigour, computational innovation, and experimental validation, fostering AI-assisted discovery and design in physical systems.

Ongoing research projects:

  • Failure mechanism and design of solid-state batteries (materials + mechanics, experiment + modelling)
  • Battery network for power grid resilience (battery + communications + AI)
  • Intelligent design and fabrication of self-powered rapid testing kits for transmitted diseases (BME + battery)
  • Sonochemical reactors for wastewater treatment (chemistry + environment engineering)
  • Digital twins of offshore wind turbines for failure detection (renewable energy + AI)
  • Fast battery parameterisation from multiphysics sensors (physics + AI)
  • Nanoscale heat transfer simulation based on ab initio simulations and quantum thermodynamics (Physics + quantum technology)

EDI:

My group always support EDI and tries our best to provide opportunities to students in difficult circumstances. I have supported many students’ PhD/scholarship applications from different backgrounds, including those from developing countries, underrepresented races, and countries in war.

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