Picking up important developments in Nanotech that may hover below the radar for a while is always a bonus. Here seems to be a likely candidate wending its way towards commercial heaven:
Here's how it works. The team uses a microfluidics chip that includes a
number of channels measured in nano-metres. The novelty of
microfluidics is that it can channel liquids in laminar, or
predictable, flow.
The floor of this channel is peppered with Hall-Effect sensors. The
Hall Effect describes how a magnetic field influences an electric
current. That influence can be measured to a high degree of accuracy.
These measurements link the biological motor with the electronic
signals of the silicon world.
There is more detail at Linuxelectronics. This is an important model for linking biological motors to in silico applications.
The number of potential applications is staggering. They can be used
for flow-control valves, pumps, positioning drives, motors, switches,
relays and biosensors.
The system could be used to develop molecular circuits, or even
molecular scale mechanical devices. The potential applications are
difficult to predict, but are only limited by the imagination of
researchers, such is the versatility of an actuator on this scale.
"It could be used as a communicator between the biological and silicon
worlds. I could see it providing an interface between muscle and
external devices, through its use of ATP, in human implants. Such an
application is still 20 or 30 years away," says Firman "It's very
exciting and right now we're applying for a patent for the basic
concepts."
For once, and much as it makes me choke, something good has come out of EU funding.