
Welcome to nAMLAB! We are a collective of driven scientists dedicated to harnessing nanotechnology to solve the most pressing challenges of our time. Our research explores fundamental science and develops pioneering techniques to redefine the performance, safety, and portability of next-generation electronics. Read More >>
Advancing Nanomaterials Nanomaterials are the essential building blocks of the future. We specialize in atomic-scale restructuring to engineer novel materials with extraordinary properties. By leveraging both bottom-up and top-down synthesis, we create diverse nanomaterials while strictly controlling monodispersity and scalability—ensuring consistent, reliable performance in every device.
Bridging the Macro and Micro We translate nanoscale potential into macroscopic reality. By engineering assembled networks and optimizing interfaces, we enhance the physical and chemical properties of bulk materials. We place a high premium on nano-additive manufacturing, utilizing precise structural control and biomimetic design rules to create artificial materials that rival nature's complexity.
Defining the Future of Electronics We are pushing the boundaries of what devices can do. Our goal is to create imperceptible, high-performance systems—ranging from precision sensors to ultra-fast processors—that allow humans to interact effortlessly with the digital world. By developing manufacturing methods tailored for nanomaterials, we aim to augment existing silicon technologies and pioneer entirely new functional systems.
Join the Mission nAMLAB thrives on creativity, integrity, and tenacity. We are always looking for bright minds and global collaborators to join our pursuit of innovation. Here, we value an environment where science, art, and passion intersect.
Thank you!
Principal Investigator of nAMLAB
Dr. Jian Zhu
RESEARCH HIGHLIGHTS
AFM 2021
"We report an economical suspended nanofiber lithography technique with short-channel processing capability, and compatibility with modern semiconductor foundries."
AM 2021
"We report that layer-by-layer assembly is exploited to build 15-nm-thick elastomeric nanodielectrics through alternative adsorption of oppositely charged polyurethanes (PUs) for soft and hysteresis-free FETs."
ACS Catalysis 2021
"We report a type of structurally stable quasi-2D bimetallic FeNi-MOF nanoarrays with self-optimized electrocatalytic activities in the oxygen production."
Small 2020
"We develop electronic inks comprising silver nanoparticles (AgNPs) for the high-resolution printing of stretchable conductor"
Nano Research 2020
"We present layer-by-layer assembly as an effective approach to obtaining scalable semiconducting films of molybdenum disulfide (MoS2) for flexible field-effect transistors ."
Advanced Materials 2017
"A comprehesive review about solution-based nanomaterial assembly techniques for field-effect transistor devices in three material categories: semiconductors, conductors, and dielectrics."