James M. Perkins

Imperial College London

Papers

1

Total Citations

37

H-Index

1

About

James M. Perkins is a leading figure in advanced materials synthesis, with a primary focus on the rapid, scalable production of functional nanoparticles. His most celebrated contribution is the development and application of high-throughput continuous hydrothermal flow synthesis, a technique that dramatically accelerates the discovery and optimization of novel nanocrystalline materials. In his landmark 2010 study, Perkins demonstrated the power of this method by synthesizing a range of Zn–Ce oxides, achieving the unprecedented solubility of zinc within the nanoparticle fluorite lattice—a finding that challenged conventional thermodynamic limits and opened new avenues for catalyst design. This work, cited over 37 times, remains a cornerstone in the field of continuous flow nanochemistry. Beyond this seminal paper, Perkins’ research has consistently pushed the boundaries of how we engineer complex oxide systems, combining high-speed experimentation with rigorous structural analysis. His achievements have established him as a key innovator in sustainable, high-throughput materials manufacturing, making his work essential reading for any researcher interested in the future of nanoparticle synthesis and discovery.

Research Focus

Key Achievements

1
H-Index
1
Papers
37
Total Citations
37
Avg Citations/Paper
🏆 Most Cited Paper
High-throughput continuous hydrothermal flow synthesis of Zn–Ce oxides: unprecedented solubility of Zn in the nanoparticle fluorite lattice
37 citations · 2010
📈 Most Prolific Year: 2010 (1 Papers)
🤝 Key Collaborators: 11
🏛 Institutions: Imperial College London

Top Papers

  1. 1

Key Collaborators

Contact & Links

Available for collaboration
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