Omar Allam
Postdoctoral Fellow @ SandboxAQ | Ex-Google [X] | PhD @ Georgia Tech
I am a Postdoctoral Fellow at SandboxAQ, where I focus on developing frameworks that integrate quantum mechanics and machine learning to accelerate and automate the evaluation of complex heterogeneous reaction mechanisms. My work also extends to connecting atomic-scale phenomena to the mesoscale and refining large-scale foundation models for applications in catalysis and energy storage.
Prior to this role, I earned my PhD from Georgia Tech. There I worked at the juncture of a computational and an experimental group — the Computational NanoBio Technology Lab led by Seung Soon Jang and the Energy Storage and Conversion Lab led by Seung Woo Lee. My research utilized multiscale atomistic modeling and ML to design sustainable electrode and electrolyte materials for electrochemical energy storage devices. I also worked on engineering the electronic structure of perovskites and phase change materials to enhance their external quantum efficiency and phase stability.
Previously, I was the Computational Chemistry + ML PhD Resident at Google [X] where I worked on AI-driven tools for automating materials discovery in a confidential moonshot.
Outside the lab (or the cluster, I guess), I enjoy hiking, mountain biking, experimenting in the kitchen, and expanding my collection of vintage briar wood pipes.
Feel free to reach out if you're interested in AI-accelerated materials discovery or would like to explore potential collaborations!
news
07/2022 | My first experience as a Graduate Teaching Assistant has been a rewarding one. I had the pleasure to work with over 50 students this summer who are learning about engineering thermodynamics. I am very grateful to receive recognition from the Georgia Tech Center for Teaching and Learning. I look forward to a new semester working with students! |
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06/2022 | For the first time, we study the effect of operating temperatures on Li–oxygen cells in the presence of carbon dioxide. Density functional theory calculations shed light on the experimentally observed temperature-dependent discharge mechanisms and electrolyte stability. Our study highlights the importance of assessing the practical utility of Li–oxygen cells (in the presence of carbon dioxide and temperature changes), which is necessary prior to a future commercialization operating under air. |
01/2022 | Happy to announce the publication of our review paper that summarizes a variety of recent computational and experimental advances in the design and application of covalent organic frameworks for energy storage. |
10/2021 | Metal halide perovskites have garnered a great deal of attention in recent years due to their desirable properties for optoelectronics. However, progress in their commercial utilization has been hampered by their stability and the environmental concerns of using lead. In recent years, numerous studies have been dedicated to the discovery and synthesis of novel lead free perovskites, namely a subclass of perovskites known as double perovskites. Therefore, it has been a privilege to highlight the recent computational developments towards discovering promising lead-free halide double perovskites in our recent review paper published in Materials Today. |
07/2021 | In our latest study, we investigate the utility of organic hybrid 3D frameworks composed of carbon quantum dot and reduced graphene oxide (CQD - rGO) as novel cathode materials for Li-, Na-, and K-ion batteries. Density functional theory and experimentation uncovered the structure - electrochemical activity trends of the CQD - rGO hybrids. The results offer valuable insights for the highly promising application of CQDs in batteries using relatively earth abundant alkali metals such as Na and K. |
01/2021 | In our recent collaborative study, we elucidate the source of spectral instability in quasi-2D mixed halide perovskites using experimentation (by our collaborators) and atomistic modeling. Namely, experiments and density functional theory computations analyzed the halide redistribution mechanisms which we believe are responsible for this observed phenomena. |