AhmedLab

ANGSTROM TO EMBASSY

FROM ANGSTROM
TO EMBASSY (A2E)

Where atomic-scale discovery meets policy-scale impact.

Computational materials physics for a sovereign, just, and technologically competitive future.

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ADVANCING MATERIALS

RESEARCH & INNOVATION

LAB MEMBERS

Meet our dedicated team of researchers and students shaping the future of materials.

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RESEARCH CENTER

Explore our world-class facility equipped for high-precision simulation and analysis.

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EXPERIENCE

Applying expertise to tackle challenges in material science and engineering.

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SUGGESTIONS

We value collaboration. Share your ideas or reach out for potential research partnerships.

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INNOVATION-DRIVEN MATERIALS RESEARCH COMBINING

THEORY, SIMULATION, EXPERIMENT

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.

RESEARCH AT AHMEDLAB

RESEARCH IMPACT & CONTRIBUTIONS

Advancing research, mentoring future researchers, and translating scientific discovery into meaningful impact.

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WHAT WE STUDY

RESEARCH AREAS

AhmedLab explores emerging materials and technologies at the intersection of energy, quantum science, semiconductors, and artificial intelligence.

01

CLEAN ENERGY

Lead-free perovskite solar phenomena and devices; magnesium and sodium-ion battery kinetics (cobalt-free, lithium-free).

02

QUANTUM MATERIALS

Valleytronics and post-silicon computing, including WTe₂ heterostructures and emerging quantum phenomena.

03

SEMICONDUCTORS

2D transition metal dichalcogenides, MXenes, and device physics for next-generation electronic technologies.

04

OPTOELECTRONICS

Photovoltaic device characterization, light–matter interactions, and optical properties of two-dimensional materials.

05

AI-ACCELERATED MATERIALS DISCOVERY

Machine-learning-guided synthesis optimization, materials informatics, and property prediction for accelerated materials discovery.

Discover how our research connects materials science with emerging technologies. VIEW ALL RESEARCH →
A2E RESEARCH PROGRAM

ANGSTROM TO EMBASSY

WHERE ATOMIC-SCALE DISCOVERY MEETS POLICY-SCALE IMPACT

A2E

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.

NOW

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.

ACADEMIC & PROFESSIONAL NETWORK

INSTITUTIONS & COLLABORATIONS

Building connections across leading academic, research, and technology institutions.