4.6 Article

Surface oxidation of Ti3C2Txenhances the catalytic activity of supported platinum nanoparticles in ammonia borane hydrolysis

Journal

2D MATERIALS
Volume 8, Issue 1, Pages -

Publisher

IOP PUBLISHING LTD
DOI: 10.1088/2053-1583/ababef

Keywords

heterogeneous catalysis; 2D materials; MAX phase; metal-support interactions; rutile titania; ozone

Funding

  1. NWO TOP-PUNT grant [718.015.004]
  2. Ministry of Education Youth and Sports (MEYS) [LTAUSA19034]
  3. MINECO (Spain) [MAT2017-86992-R, MAT2016-80285-P]

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This study investigates the use of MXenes as supports for platinum nanoparticles in the hydrolysis of ammonia borane. Oxidizing the surface of MXene can modify the electronic environment of platinum, enhancing its catalytic activity. These findings provide a new approach to developing active catalysts for energy-related reactions.
MXenes, first discovered in 2011, are two-dimensional transition metal carbides or nitrides. Because of their interesting electrical and optical properties, they are studied for applications in batteries, supercapacitors and electrocatalysis. However, MXenes are rarely used in heterogeneous catalysis and, to our knowledge, there are no reports on the use of oxidized MXenes in catalysis. Here we used Ti3C2Tx-derived materials as supports for platinum nanoparticles and studied their effectiveness for the hydrolysis of ammonia borane, which is a promising hydrogen carrier. Hydrogen can be released from ammonia borane through catalytic hydrolysis. Most heterogeneous catalysts reported for this purpose contain a noble metal supported on a metal oxide support. The interaction between the metal and the support is important in determining the catalytic performance. Our results show that the electronic environment of platinum can be modified by oxidising the surface of MXene, thus providing a new way of developing active catalysts. Oxidising agents such as water and ozone can be used for this purpose. This electronic modification enhances the catalytic activity of platinum for ammonia borane hydrolysis, which is relevant for other reactions related to energy production/storage.

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