"Design": Difference between revisions
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===[[Image:タイトル○.png| 15px]] | ===[[Image:タイトル○.png| 15px]] <font size="5">Background</font>=== | ||
<p> | |||
Biomolecular motor system such as microtubule-kinesin is an example of smallest natural machine<br> that can convert chemical energy obtained from ATP into mechanical work with high efficiency and<br> | |||
specific power. Nowadays microtubule-kinesin system is being used as a building block for<br> | |||
constructing micro-actuators and driving unit of the biodevices. To use as a building block,<br> | |||
dynamic self-organization of microtubule and kinesin into highly organized structures has been<br> | |||
drawing much attention. Ring-shaped microtubule assemblies have been demonstrated to obtain through<br> | |||
dynamic self-organization. Considering the advantage of its geometry and handedness, they have<br> | |||
appeared to be a promising tool to harness continuous rotational motion without changing the<br> | |||
position of its mass center. | |||
</p> | |||
Revision as of 21:48, 30 August 2013
Background
Biomolecular motor system such as microtubule-kinesin is an example of smallest natural machine
that can convert chemical energy obtained from ATP into mechanical work with high efficiency and
specific power. Nowadays microtubule-kinesin system is being used as a building block for
constructing micro-actuators and driving unit of the biodevices. To use as a building block,
dynamic self-organization of microtubule and kinesin into highly organized structures has been
drawing much attention. Ring-shaped microtubule assemblies have been demonstrated to obtain through
dynamic self-organization. Considering the advantage of its geometry and handedness, they have
appeared to be a promising tool to harness continuous rotational motion without changing the
position of its mass center.
Marimo gel
Gear
===
