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Master Theses and Student Projects
Low Complexity Communication for Nanoscale Devices
The ongoing technological advancement in nanoengineering has led to the proposal of many future
applications of systems at the nanoscale. These systems inherently have limited complexity as well as
a very small operating range in which they interact with their environment. To make the execution of
sophisticated tasks possible, cooperative behavior between many individual nanodevices may be necessary.
The key to achieve this is enabling the communication among the devices.
For the study of communication mechanisms for nanosystems, we need to take into account the severe
limitations in terms of complexity as well as available power. A possible relaxation to these challenges
lies in the exploitation of novel materials and phenomena encountered at the submicrometer range. For instance,
it has been demonstrated that the reception and demodulation of an electromagnetic signal is possible using the
electromechanic resonance of a single carbon nanotube [1].
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Single carbon nanotube radio [1].
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In devising advanced communication mechanisms for nanodevices, several aspects such as medium
access, modulation schemes, power supply, frequency range or the computational complexity of the
node have a substantial impact on possible implementations of the communication system and therefore
need to be considered jointly.
For further information please contact Eric Slottke.
References:
[1] Jensen, K., Weldon, J., Garcia, & H. Zettl, A., Nanotube radio. Nano Lett. 7, 3508–3511 (2007).
[2] I. F. Akyildiz and J. M. Jornet, Electromagnetic Wireless Nanosensor Networks. Nano Communication Networks (Elsevier) J., vol. 1, no. 1, Mar. 2010, pp. 3–19.
| Subject area |
Nanosystem Communications |
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| Type of work |
Simulation, Communication Systems, Physical Layer, Nanostructures |
| Supervisor |
Eric Slottke
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| Professor |
Prof. Dr. A. Wittneben |
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