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Constrained Bismuth–Metal-Free Scaffolds for Ammonia Activation

Maynooth University Department of Chemistry
✓ Fully Funded ⏰ Closing Soon 🎓 Chemistry 🎓 Materials Science 🎓 Organic Chemistry catalysis spectroscopy ammonia activation bismuth catalysts organic ligand design main group chemistry x-ray diffraction organometallic compounds

Explore developing precious metal-free bismuth-based scaffolds for catalyzing ammonia activation under Dr Daniela Bezuidenhout's supervision at Maynooth University. Synthesize and characterize novel compounds to advance sustainable catalyst design.

AI-generated overview

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Why This Research Matters

This research targets sustainable catalytic activation of ammonia, a key molecule in green energy and chemical industry. By designing precious metal-free bismuth scaffolds, it aims to reduce reliance on scarce and expensive precious metals, potentially enabling more economical and environmentally friendly catalytic processes.

Bismuth Scaffolds Ammonia Activation Organic Ligands Catalyst Development Main Group Chemistry

Project Description

Project Overview

The Department of Chemistry at Maynooth University offers a fully funded PhD opportunity investigating the development of new concepts that integrate organic ligand design with d- and p-block element chemistry. The project aims to prepare innovative catalysts relevant to ammonia activation, emphasizing precious metal-free scaffolds based on constrained bismuth complexes.

What You Will Do

  • Work under the supervision of Dr Daniela Bezuidenhout.
  • Synthesize and purify organic ligands and organo-main group compounds.
  • Characterize synthesized compounds using techniques like NMR, vibrational spectroscopy, mass spectrometry, and single crystal X-ray diffraction.
  • Conduct reactivity and catalytic studies on synthesized compounds.
  • Support laboratory maintenance, administrative duties, and supervise Bachelor students in practical work.
  • Maintain rigorous data recording, attend group meetings, and prepare drafts for peer-reviewed publications.
  • Participate in training and adhere to university policies including occupational health and safety.

Expected Outcomes

Development of new organic-metal catalyst systems for efficient ammonia activation, expanding knowledge on precious metal-free scaffold chemistry. Experimental data will lead to high-quality publications and presentations at conferences, establishing foundations for future catalyst innovation.

Why This Matters

Ammonia activation is a critical challenge in sustainable chemistry due to ammonia’s potential as a carbon-free energy carrier. Advancing precious metal-free catalyst designs improves sustainability and cost-effectiveness in industrial chemical processes, contributing to greener energy and chemical production.

How to Apply

Informal queries and applications can be sent directly to daniela.bezuidenhout@mu.ie. Please apply by 2026-04-30, 5pm.

Eligibility

UK/Home
EU
International

Supervisor Profile

DD
Dr Daniela Bezuidenhout
Maynooth University, Department of Chemistry
1080 Citations
20 h-index
Google Scholar

Dr Daniela I. Bezuidenhout is an accomplished chemist specializing in organometallic and coordination chemistry, with a particular focus on ligand design and catalysis. Her work includes stabilizing reactive late transition metal complexes and pioneering metal-free catalytic systems. She has a strong publication record with significant impact in chemical synthesis and catalysis fields.

Key Publications

2014 109 citations
Isolation of a potassium bis (1, 2, 3-triazol-5-ylidene) carbazolide: a stabilizing pincer ligand for reactive late transition metal complexes
2016 78 citations
A rhodium (I)–oxygen adduct as a selective catalyst for one-pot sequential alkyne dimerization-hydrothiolation tandem reactions
2016 70 citations
Nucleophilic T-shaped (LXL) Au (I)-pincer complexes: Protonation and alkylation
2017 55 citations
A Hemilabile and Cooperative N‐Donor‐Functionalized 1, 2, 3‐Triazol‐5‐Ylidene Ligand for Alkyne Hydrothiolation Reactions
2012 53 citations
Recent advances in the field of multicarbene and multimetal carbene complexes of the Fischer-type

Research Contributions

Development and isolation of stabilizing pincer ligands for reactive late transition metal complexes.
Enables enhanced stability and reactivity control in transition metal catalysis.
Demonstration of selective catalysis via rhodium(I)–oxygen adducts for tandem alkyne dimerization-hydrothiolation.
Provides efficient routes for complex molecule synthesis in organic chemistry.
Investigation and protonation/alkylation of nucleophilic T-shaped Au(I)-pincer complexes.
Advances understanding of gold-based catalysis and organometallic chemistry.
Design of hemilabile and cooperative N‐donor‐functionalized triazolylidene ligands for hydrothiolation.
Improves catalyst design for selective chemical transformations.

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