The Lieber group is focused broadly on science and technology at the nanoscale within a common intellectual vision: the bottom-up paradigm for nanoscale science and technology. This paradigm rests on the design and synthesis of nanoscale components -- building blocks -- that can be tailored down to the atomic scale and subsequently elaborated as single structures or assemblies to yield virtually any kind of functional structure or nanosystem. We are currently pursuing this paradigm in areas ranging from nanoprocessors through novel nanoelectronic-based biological tools and cyborg tissues.
Precise control of morphology, structure and composition allows design and synthesis of new nanomaterials for photovoltaics.
Synthesis of well-defined ‘stereo-centers’ in multi-kinked nanowires.
Cyborg neural tissue: Seamless integration of 3D nanoelectronic and neural networks.
SEM image of a programmable nanowire logic tile assembled from two coupled nanowire arrays.
First transistor recordings of intracellular potential with three-dimensional nanowire FET probe.
Well-defined crystalline interfaces result in efficient silicon nanowire solar cells.
Self-organized three-dimensional macroporous nanoelectronic circuit.
‘Nanocombing’ technique to fabricate arrays of highly aligned nanowires and single-nanowire devices.
Three-dimensional macroporous nanoelectronic network/elastomer seamless hybrid systems as very-smart materials.
Branched-intracellular nanotube transistor probe for deep sub-cellular recording.
SEM images of nanowires with distinct cross-sections achieved by control of thermodynamic and kinetic growth parameters.
Dark-field optical microscopy image of etched kinked Si nanowire with 4 series nanoFET elements encoded during synthesis.