Meet our dedicated team of researchers and students shaping the future of materials.
READ MORE →Where atomic-scale discovery meets policy-scale impact.
Computational materials physics for a sovereign, just, and technologically competitive future.
EXPLORE A2E →Meet our dedicated team of researchers and students shaping the future of materials.
READ MORE →Explore our world-class facility equipped for high-precision simulation and analysis.
READ MORE →Applying expertise to tackle challenges in material science and engineering.
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READ MORE →Dr. Saquib Ahmed is a nanophysicist whose expertise spans the full arc of technology development — from quantum-scale materials physics through device design, process integration, and manufacturing. Before entering academia, he spent close to a decade as a senior R&D engineer at Intel Corporation, developing a working knowledge of how atomic-scale discoveries become manufactured products. He is a tenured Associate Professor of Engineering Technology at SUNY Buffalo State University, founder of the Center for Integrated Studies in Nanoscience and Nanotechnology (CISNN), and served four years as a Visiting Faculty at the Department of Energy. He is a Senior Fellow at the US Manufacturing Innovation Council.
His research program — Angstrom to Embassy — applies density functional theory, machine learning, and ab initio molecular dynamics across multiple frontier domains: energy (perovskite PV phenomena and devices, sodium and magnesium-ion battery kinetics), semiconductors, quantum materials (probing phenomena such as valleytronics), and optoelectronics. The program’s name captures its intent: connecting discoveries at the atomic scale to the policy and market decisions that determine whether those discoveries reach the world.
Advancing research, mentoring future researchers, and translating scientific discovery into meaningful impact.
AhmedLab explores emerging materials and technologies at the intersection of energy, quantum science, semiconductors, and artificial intelligence.
Lead-free perovskite solar phenomena and devices; magnesium and sodium-ion battery kinetics (cobalt-free, lithium-free).
Valleytronics and post-silicon computing, including WTe₂ heterostructures and emerging quantum phenomena.
2D transition metal dichalcogenides, MXenes, and device physics for next-generation electronic technologies.
Photovoltaic device characterization, light–matter interactions, and optical properties of two-dimensional materials.
Machine-learning-guided synthesis optimization, materials informatics, and property prediction for accelerated materials discovery.
The A2E research program operates across multiple frontier technology domains — clean energy, advanced semiconductors, quantum materials, and optoelectronics — connected by a single organizing question: how do discoveries at the scale of atoms translate into technologies that change the world? That translation requires both scientific depth and policy fluency. The lab publishes peer-reviewed science in high-impact journals. It also engages directly with the legislative and diplomatic spaces where the rules governing these technologies are written — advocating for supply chain sovereignty, ethical materials sourcing, and US competitiveness in critical technology sectors.
Current work includes lead-free perovskite solar devices that require no polysilicon from Xinjiang, sodium-ion battery anodes that require no cobalt from the DRC, and valleytronic semiconductor materials designed to make AI computation dramatically more energy-efficient. All three are published in peer-reviewed journals in 2024–2026. All three have direct implications for US energy policy and industrial competitiveness.
Building connections across leading academic, research, and technology institutions.