Categories

adhesives (20)
art(ists) (43)
biomimicry (54)
bionanotech + nanobiotech (47)
biotech (21)
coatings (65)
cybernetics (16)
design(ers) (81)
energy (156)
filtration (44)
gels + foams (27)
membranes (30)
military (26)
molecular machines + devices (106)
molecular manufacturing (63)
nano-emissive displays (25)
nanocomposites (41)
nanofibers (28)
nanoparticles (96)
nanoscopy + microscopy (32)
nanotubes, wires, fullerenes (134)
NEMS + MEMS (32)
optics + photonics (92)
other (70)
plasma (5)
polymers (42)
quantum dots (11)
quantum mechanics (11)
responsible nanotechnology (59)
safety + security (45)
scientists (38)
self-assembly (19)
self-cleaning (17)
self-replication (3)
sensors (42)
smart materials (smt) (36)
smt: chromism (color-change) (21)
smt: energy-photovoltaic (55)
smt: energy-piezoelectric (11)
smt: energy-thermoelectric (9)
smt: luminescent (light-emit) (23)
smt: magnetocaloric (1)
smt: polymorphic (shape-shift) (71)
smt: rheometry (smart fluids) (13)
superhydrophobic/philic (34)
superoleophobic (1)
synthetic biology (2)
techniques (36)
tools (23)

Recent Items

The following resources are the most recent posted on nanoarchitecture.net.

Recent Resources

general science

American Institute of Physics | News from the American Institute of Physics.

blogs

Nanodot | The original nanotechnology weblog, supported by the Foresight Nanotech Institute.

databases

Science Direct | The world's largest electronic collection of science, technology and medicine full text and bibliographic information.

news services

Nano Techwire | An online resource for news of emerging developments in nanotechnology. News items are arranged by date and category.

organizations

Nano Science and Technology Institute | The Nano Science and Technology Institute (NSTI) is chartered with the promotion and integration of nano and other advanced technologies through education, technology and business development.

Nanowiring Devices with Boron Clusters in Graphene
9 May 2008, 17:27

Categories: nanotubes-wires-fullerenes molecular-machines--devices

Jens Kunstmann of the Max-Planck Institute in Stuttgart, with colleagues in Germany, Italy, and Turkey, has proposed a “blueprint” for graphene-based nanodevices of the future. The model involves using alternating chains of B7 boron clusters to connect various parts of a semiconducting graphene substrate (boron and carbon are compatible at the nanoscale). The small planar clusters act as metallic islands (i.e., electrically conductive zones) embedded in the graphene substrate, and can allow electron transport through the substrate. The concept is very similar to that routinely employed in silicon-based integrated circuits, but the resulting graphene-based devices would be several orders of magnitude smaller.

Read More
Paper
Paper PDF

Previous: Design of a Nanoassembly System
Next: Luminescent Nanowires