Shengda is interested in electrochemical processes and related surface changes at nanoscale. He is now a PhD working on in-situ TEM of liquid battery cells under the supervision of Dr. Alex Robertson and Prof. Peter Bruce in Oxford.
Before coming to Oxford, Shengda obtained his BEng degree in Materials from Imperial College London. He then worked as an MPhil research student under the supervision of Dr. Steve Ooi and Sir. Harry Bhadeshia at University of Cambridge where he studied the hydrogen behaviors during phase transformation in steels.
Email: shengda.pu@queens.ox.ac.uk
Shengda is interested in electrochemical processes and related surface changes at nanoscale. He is now a PhD working on in-situ TEM of liquid battery cells under the supervision of Dr. Alex Robertson and Prof. Peter Bruce in Oxford.
Before coming to Oxford, Shengda obtained his BEng degree in Materials from Imperial College London. He then worked as an MPhil research student under the supervision of Dr. Steve Ooi and Sir. Harry Bhadeshia at University of Cambridge where he studied the hydrogen behaviors during phase transformation in steels.
Email: shengda.pu@queens.ox.ac.uk
Shengda is interested in electrochemical processes and related surface changes at nanoscale. He is now a PhD working on in-situ TEM of liquid battery cells under the supervision of Dr. Alex Robertson and Prof. Peter Bruce in Oxford.
Before coming to Oxford, Shengda obtained his BEng degree in Materials from Imperial College London. He then worked as an MPhil research student under the supervision of Dr. Steve Ooi and Sir. Harry Bhadeshia at University of Cambridge where he studied the hydrogen behaviors during phase transformation in steels.
Email: shengda.pu@queens.ox.ac.uk
University of Warwick
Our recent work on identifying how defects in graphene atomistically evolve through combined experiment and computational modelling has been covered by Physics World and the MRS Bulletin.
Read about it at https://physicsworld.com/a/mediator-atoms-help-graphene-self-heal/ and https://www.cambridge.org/core/journals/mrs-bulletin/article/mediator-atoms-drive-structural-evolution-of-defects-in-graphene/21CE27C9E0C3663A3CA0789C12013A49
