(Late) Invited Presentation
Chemometrics
Lottie Murray (she/her/hers)
Graduate Student
University of Delaware
New Castle, Delaware, United States
Helder V. Carneiro
PhD Candidate
University of Delaware
Newark, Delaware, United States
Caelin Celani, PhD (he/him/his)
Postdoctoral Fellow
University of Delaware
Claymont, Delaware, United States
Eric Herrmann
University of Delaware
Newark, Delaware, United States
Karl S. Booksh, PhD
Professor
University of Delaware
Newark, Delaware, United States
Xi Wang
University of Delaware
Newark, Delaware, United States
Matthew Doty
Professor
University of Delaware
Newark, Delaware, United States
Lottie Murray (she/her/hers)
Graduate Student
University of Delaware
New Castle, Delaware, United States
Strain engineering in two-dimensional (2D) materials provides a powerful pathway for realizing single photon emitters, a key component for future quantum technologies. Unlike their bulk counterparts, 2D materials display highly tunable optoelectronic properties, where the bandgap can shift significantly with layer number and applied strain. Quantifying these effects typically requires finite element simulations, which are accurate but computationally expensive and limit rapid exploration of device geometries. In this work, we present a machine learning assisted methodology that reduces the reliance on large scale simulations. By training ML models on a combination of simulated strain profiles and experimental photoluminescence measurements, we can (1) identify viable structures to perform costly simulations on and (2) predict local strain distributions with reduced computational cost. This approach enables faster, more scalable design of strain engineered quantum emitter platforms and provides a generalizable strategy for integrating ML into the fabrication and characterization workflow.