A multi-institutional NSF DMREF effort to overcome the materials barrier for rotating detonation engines.
Rotating Detonation Engines (RDEs) generate power by sustaining a circulating detonation wave in an annular chamber at thousands of meters per second, achieving power densities orders of magnitude higher than conventional engines while offering greater efficiency, more compact designs, and higher thrust-to-weight ratios. The technology is advancing rapidly β but the lack of materials capable of withstanding the extreme thermomechanical loads remains a critical barrier to deployment.
Thriving While Detonating establishes a synergistic, Materials Genome Initiativeβinformed platform for accelerated materials discovery. The team integrates a generative AI multi-agent framework, a first-of-its-kind miniaturized RDE materials testing platform, and cold-spray and directed-energy-deposition additive manufacturing to enable closed-loop design of copper-based alloys under realistic RDE conditions. Outcomes will inform broader classes of structural alloys for propulsion and power generation.
Four interlocking thrusts that span physics, characterization, manufacturing, and informatics.
Building a miniaturized RDE materials testing platform to rapidly screen candidate alloys under realistic detonation conditions, and establishing standardized testing protocols.
Linking processing defects to failure modes through high-resolution microscopy, post-mortem damage analysis, and damage / failure regime maps.
Leveraging directed energy deposition (DED) and cold-spray to process copper-based alloys with site-specific microstructural design.
Coordinating experiments and simulations via a generative AI multi-agent framework, CALPHAD-based thermodynamics, and uncertainty-responsive reduced-order models.
Major milestones and events. Click any entry for details. Upcoming markers highlight planned activities.
Full proposal submitted to the NSF Designing Materials to Revolutionize and Engineer our Future (DMREF) program β a multidisciplinary collaboration led by Lehigh University with UC Irvine and Carnegie Mellon University.
NSF DMREF Award #2522673 funded at $2M over four years, supporting the project through 2029.
Read the partner institution announcements:
Inaugural project-wide kick-off bringing together PIs, co-PIs, AFRL partners, and industry stakeholders to align research thrusts, testing infrastructure, and the first round of candidate materials.
The miniaturized RDE materials testing platform was assembled at UCI and achieved successful first fire, establishing the project's high-throughput screening capability for candidate alloys under representative detonation conditions.
A one-day workshop at UCI's CALIT2 Auditorium bringing together academic, government, and industry experts in RDE physics, characterization, additive manufacturing, and materials informatics. Four panel sessions, lab tours, and a wine-and-cheese reception.
Project results and early materials testing approaches presented at the International Workshop on Detonation for Propulsion (IWDP 2026).
Follow-on workshop to share project outcomes with the broader RDE community and to engage industry stakeholders on translation pathways.
This timeline is updated as the project progresses. Last updated: May 2026.
Faculty, students, and postdocs from Lehigh, UC Irvine, and Carnegie Mellon, working with partners at AFRL and industry.














Publications, presentations, and other research outputs produced under the project.
Conference Abstract D. K. Menendez, M. W. Ross, D. R. Mumm, L. Valdevit, X. Shi, “Component and material failure mechanisms in miniaturized rotating detonation engines,” 14th International Workshop on Detonation for Propulsion (IWDP 2026), Keio University, Yokohama, Japan, May 4β8, 2026.
View extended abstract (PDF) βMaterials and program from past events organized under the project.
UC Irvine Β· CALIT2 Auditorium Β· March 13, 2026
One-day workshop with four panel sessions spanning RDE physics, materials characterization, advanced additive manufacturing, and materials informatics. Featured panelists from AFRL, Boeing, ATI, Los Alamos National Lab, and leading universities.
This material is based upon work supported by the National Science Foundation under Award No. 2522673. Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the NSF.
The 2026 Workshop was generously supported by the UCI Samueli School of Engineering, whose contribution made the gathering of our academic, government, and industry partners possible.
For collaboration inquiries, please contact the PI and co-PIs at Lehigh, UCI, and CMU.