
Michael Tonks
Interim Chair University of Florida
- Gainesville FL
Michael Tonks's research is focused on understanding the behavior of materials in harsh environments, including in nuclear reactors.
Biography
Areas of Expertise
Media Appearances
LEGO-loving University of Florida researcher helps fuel Mars mission
The Gainesville Sun print
2024-08-08
Michael Tonks, the new acting chair of the University of Florida's Department of Materials Science & Engineering, grew up in Los Alamos, New Mexico — birthplace of the atomic bomb and a desert hub for top-secret research.
Take Aim: The Five Hottest Problems in Material Engineering
Online Engineering Programs online
2024-04-01
Materials engineers study, design, and manipulate the properties of materials. Discover five of the hottest research topics in materials engineering through interviews with two renowned professors.
Sintering and Densification in Nuclear Power
Science Trends online
The nuclear industry needs to constantly improve safety while reducing cost. One way to do this is by improving the manufacturing processes used to make the uranium dioxide (UO2) pellets that fuel our existing reactors.
Social
Articles
4D Observations of the initiation of abnormal grain growth in commercially pure Ni
ScienceDirectWang, et al.
2025-07-15
In this study, laboratory-based x-ray diffraction contrast tomography (LabDCT) is employed to non-destructively track the 3D microstructural evolution of high-purity nickel during the onset of AGG at 800 °C.
Elucidating grain boundary energy minimization mechanisms in textured Ca-doped alumina with inclination-dependent Monte Carlo Potts simulations
ScienceDirectYang, et al.
2025-04-15
The grain growth behavior of textured Ca-doped alumina is compared to Monte Carlo Potts (MCP) simulations to investigate the effect of anisotropic grain boundary (GB) properties on local boundary migration.
Impact of position and density of nanoscale voids on fracture initiation in iron from phase field fracture simulation
ScienceDirectTa, et al.
2025-07-01
In this work, we used phase-field fracture simulations to examine the influence of voids and their distribution on Mode I fracture in Fe.