Categories

adhesives (24)
art(ists) (50)
biomimicry (62)
bionanotech + nanobiotech (49)
biotech (22)
coatings (83)
cybernetics (17)
design(ers) (98)
energy (184)
filtration (50)
gels + foams (34)
membranes (31)
military (31)
molecular machines + devices (120)
molecular manufacturing (63)
nano-emissive displays (28)
nanocomposites (44)
nanofibers (30)
nanoparticles (107)
nanoscopy + microscopy (37)
nanotubes, wires, fullerenes (160)
NEMS + MEMS (35)
optics + photonics (108)
other (80)
plasma (5)
polymers (52)
quantum dots (11)
quantum mechanics (11)
responsible nanotechnology (65)
safety + security (49)
scientists (40)
self-assembly (24)
self-cleaning (21)
self-replication (3)
sensors (46)
smart materials (smt) (55)
smt: chromism (color-change) (30)
smt: electro/magnetocaloric (2)
smt: energy-photovoltaic (71)
smt: energy-piezoelectric (17)
smt: energy-thermoelectric (10)
smt: luminescent (light-emit) (32)
smt: polymorphic (shape-shift) (82)
smt: rheometry (smart fluids) (13)
superhydrophobic/philic (43)
superoleophobic (2)
synthetic biology (2)
techniques (40)
tools (27)

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.

Powerful Piezoelectric Fabrics
14 February 2008, 11:59

Categories: nanotubes-wires-fullerenes smt-energy-piezoelectric

Nanotechnology researchers at the Georgia Institute of Technology are developing a shirt that harvests energy from the wearer’s physical motion and converts it into electricity for powering small electronic devices worn by soldiers in the field, hikers and other users.

The researchers constructed pairs of textile fibers covered with piezoelectric zinc oxide nanowires that generate electricity in response to applied mechanical stress. The resulting current flow from many fiber pairs woven into a shirt or jacket could allow the wearer’s body movement to power a range of portable electronic devices. The fibers could also be woven into curtains, tents or other structures to capture energy from wind motion, sound vibration or other forms of mechanical energy.

The scientists estimate that their nanoclothing can put out about 80 milliwatts of power per square meter of fabric. Which should be enough to operate your personal electronics.

Read More
Read More
Read More
Read More
Read More
PDF
Paper

Previous: Self-Cleaning Keratins
Next: A Roadmap for Nanotechnology