Long-distance propagation of forces in a cell
What might be the differences, if there is any, between mechanical signaling and chemical signaling in a living cell?
What might be the differences, if there is any, between mechanical signaling and chemical signaling in a living cell?
A word file is attached.
Return to the outline of the course.
Each student completes a term paper of selected topics that (a) addresses a phenomenon in thin film materials, and (b) involves analyses using mechanics. The project contributes 25% of the grade, distributed as follows:
Here is one answer from Nokia.
Nokia 888 communicator, a concept design which recently won the Nokia's Benelux Design Award. It uses liquid battery, flexible touch display, speech recognition, touch sensitive body cover which lets it understand and adjust to the environment. It has a simple programmable body mechanism so that it changes forms in different situations. Don't forget to enjoy a video demo of this cell phone of future.
Yet one more future application of flexible electronics, it's clear there're great mechanics and materials challenges in making electronic devices flexible. It will be great mechanicians can help accelerate the advance of this emerging technology.
ICHMM 2008 seeks dissemination of recent, leading edge research results as well as in-depth discussions of future directions in the challenging subject of heterogeneous material mechanics. Sessions in the Huangshan International Hotel will focus on recent original research developments, while invited panel discussins in the subsequent Huangshan Mountain retreat aim to stimulate future research directions.
Co-Chairs
J. Fan, Alfred University, USA and Chongqing University
The topics of interest are:
3 Papers that might be useful for Will Adam's final project (attached)
Could anyone explain to me, in a simple approach, how to calculate the delay of water flow along a pipe in response to the boundary condition change, such as pressure?
Thanks,
Xiaoming
There has been a lot of attention on the study of mechanics of proteins and/or single molecules. Such study was typically implemented by using classical molecular dynamics (MD) simulation. In spite of ability to describe the dynamics of biological macromolecules (e.g. proteins), MD simulation exhibits the computational restriction in the spatial and temporal scale. In order to overcome such computational limitation, the coarse-grained model has recently been taken into account. In this review, I would take a look at a couple of coarse-grained models of protein molecules.
Questions about meshfree methods are now addressed in the forum, under the Computational Mechanics subheading.
If you click on a question below, you will be redirected to the forum. I will update this post as more questions are added. Other experts are encouraged to augment my response there.
2. Is a mesh required in meshfree methods?
Most friction models for automatic control are targeted for the macro world, and are of questionable value for the motion control of the high precision positioing stages. We published a paper recently in Technishes Messen (TM) on a study of the friction behavior in the moving range of micrometers. It provides info for the development of friction models targeted for the motion control in high precision engineering.
The following is the abstract, and the full paper can be downloaded from http://www.atypon-link.com/OLD/doi/abs/10.1524/teme.2006.73.9.500
ABSTRACT Most friction models for automatic control are targeted for the macro world, and are of questionable value for the motion control of the nanopositioning and nanomeasuring machine (NPM) system. We present the frictional behaviour of some selected materials, coatings, lubricants, and bearings tested under running conditions similar to a NPM system. Continuous change of surface properties results in various friction characteristics, which substantiate the further development of tribological coatings, particularly for vacuum applications. We emphasize the system engineering approach in developing friction models, which combines fundamental knowledge of surface science, materials science, and its applications in design, construction and automatic control.