NOUFAL Lab
Nano-Optoelectronic Unified Functional Advanced Materials Lab
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Mission of the Lab
Mission of the Lab
The mission of NOUFAL Lab is to advance the frontiers of quantum and nano-optoelectronic research through the integration of functional materials, photonic devices, and energy technologies. We aim to design and engineer next-generation systems that bridge the gap between fundamental nanoscience and real-world energy and electronic applications.
Through innovation, interdisciplinary collaboration, and sustainable design, NOUFAL Lab seeks to:
Develop high-performance quantum materials and nano-engineered optoelectronic devices.
Explore energy-efficient technologies for renewable energy conversion and storage.
Cultivate a collaborative ecosystem that unites academia, industry, and government to accelerate scientific impact.
Brandeis MRSEC Summer Course as part of PREM NSF June 9 - 13, 2025
Photolithography and Soft lithography
Brandeis MRSEC Summer Course as part of PREM NSF June 9 - 13, 2025
Photolithography and Soft lithography
At Stony Brook University and Brookhaven National Laboratory, the power of syncretism fuels innovation, seamlessly blending diverse scientific disciplines to pioneer breakthroughs. With 29 beam lines already advancing discovery and 12 more on the horizon, BNL continues to illuminate the path to the future of research and technology.
At Stony Brook University and Brookhaven National Laboratory, the power of syncretism fuels innovation, seamlessly blending diverse scientific disciplines to pioneer breakthroughs. With 29 beam lines already advancing discovery and 12 more on the horizon, BNL continues to illuminate the path to the future of research and technology.
🔹 Engineering C₁₂₀ Fullertube/MXene Heterostructures for Advanced Energy Storage Applications
🔹 Atomic-Level Insights into MXene–Fullertube Interfaces for Li–S Battery Cathodes
🔹 187aa - Revolutionizing Biomedical Innovation: Leveraging AI-Driven Algorithms to Develop State-of-the-Art Antibacterial PEEK Surfaces for Advanced Implants
🔹 Exploring Mott–Schottky-Driven Charge Transfer in Hybrid C₁₂₀/MXene Systems
🔹185k - Non-IPR Sc3N@D3(6140)-C68/(MXenes) Heterostrucure: A Highly Efficient Metal-Free Electrocatalyst
🔹584e - 0D (2D) Fullertubes (COF): A Highly Efficient Metal-Free Bifunctional Catalyst for Oxygen Electrochemistry
🔹615a - Hybrid Machine Learning Framework for Optimizing Surface Properties of 3D-Printed PEEK Polymers in Biomedical Applications
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