Michael Naguib is visiting HZB as a Humboldt Research Awardee

Michael Naguib from Tulane University, USA, is one of the discoverers of a new class of materials, MXenes. During his Humboldt Research Award in 2025, he is working with Tristan Petit at HZB.

Michael Naguib from Tulane University, USA, is one of the discoverers of a new class of materials, MXenes. During his Humboldt Research Award in 2025, he is working with Tristan Petit at HZB. © Paula Burch-Celentano/ Tulane University

Professor Michael Naguib, from Tulane University in the USA, is one of the discoverers of a new class of 2D materials: MXenes are characterised by a puff pastry-like structure and have many applications, such as in the production of green hydrogen or as storage media for electrical energy. During his Humboldt Research Award in 2025, Professor Naguib is working with Prof Volker Presser at the Leibniz Institute for New Materials in Saarbrücken and with Dr Tristan Petit at HZB.

Michael Naguib, Ph.D., is an Ken & Ruth Arnold Early Career Professor in Science and Engineering at Tulane University in New Orleans, Louisiana, USA. He is a leading expert in the field of two-dimensional materials. His research group at Tulane University focuses on the synthesis and characterization of novel nanomaterials, including MXenes and Transition Metal Carbo-chalcogenides, for energy and environmental applications.

He completed his doctorate in 2014 at Drexel University, where he was involved in the discovery of a new class of materials. At that time, he tested MAX phases (layered ceramics) as electrode materials for lithium batteries. To create more space for the lithium ions, he used an acid and discovered that the “A” layers in the MAX phases had been selectively removed, transforming the remaining MX layers into a structure that, under a scanning electron microscope, resembled puff pastry: MXene.

To date, a wide range of MXenes have been synthesised. Their applications are also highly diverse: MXenes can be used as electrodes for energy storage devices, in catalysis and as sensors for medical applications. ‘I am delighted to deepen our collaboration with Tristan Petit and his team at HZB,’ says Naguib. ‘We will be discussing several fundamental questions regarding our novel materials and preparing a series of experiments to conduct at BESSY II to help us answering these questions.’

Invitation to the Seminar:

Monday, 23.06.2025 at 11 AM

Lecture hall,  BESSY II, Albert-Einstein-Straße 15, 12489 Berlin

Prof. Dr. Michael Naguib:

“Tailoring 2D Materials from the Atomic to Nanoscale for Electrochemical Energy Applications”

arö

  • Copy link

You might also be interested in

  • Special prize by Jugend Forscht awarded to former school intern
    News
    04.08.2026
    Special prize by Jugend Forscht awarded to former school intern
    Shaoxuan Wang has won a special prize in the Jugend Forscht competition for her project ‘Smart Capsules – intelligent microcapsules for glucose-dependent insulin release’. She designed the project as a “special achievement” for her A-levels. To carry out the experimental work, Shaoxuan was able to spend a further two weeks in the laboratory at the HZB Institute for Electrochemical Energy Storage, where she had completed a school internship two years earlier.
  • Five Berlin-based research institutions join forces in data-driven materials research
    News
    22.07.2026
    Five Berlin-based research institutions join forces in data-driven materials research
    Research data is regarded as key to materials research in the age of artificial intelligence (AI). Five Berlin-based research institutions have now signed a Memorandum of Understanding (MoU) to establish long-term collaboration in the fields of research data, data infrastructures and AI.
  • Green hydrogen with PEC electrolysers: New insights into transport processes
    Science Highlight
    21.07.2026
    Green hydrogen with PEC electrolysers: New insights into transport processes
    One method of storing solar energy is to use PEC electrolysers to produce hydrogen. However, scaling up this technology remains challenging. Now, a team at the HZB Institute for Solar Fuels has used 2D fluorescence imaging and particle velocimetry to observe the movement of ions and dissolved gases within the electrolyte during electrolysis. These new insights may prove useful in the development of larger PEC electrolysers.