탄소나노튜브를 활용한 나노 통신 시스템 연구 = Nano Communication Systems Using Carbon Nanotube

국문 초록 (Abstract)

나노 통신 시스템 기술은 통신기술과 나노기술의 융합 분야로서 밀리미터 수준의 통신 모듈 크기에 머물고 있는 현 기술수준을 뛰어넘어 수백 나노미터에서 수십 마이크로미터 이하 단위의 극소형 무선통신 시스템 구현을 가능케 하는 미래 핵심 기술 분야이다. 특히, 최근 제안된 탄소나노튜브의 전기적/기계적 속성을 활용한 신규 극소형 나노 무선 통신시스템 기술은 기존 송수신 구조를 단순히 소형화하는 것이 아니라 구조 자체를 바꾸는 새로운 접근 방식을 제시하고 있다. 따라서, 본 논문에서는 탄소나노튜브(carbon nanotube, CNT)를 활용한 극소형 나노 무선 송수신기 실현 관점에서의 연구현황을 살펴보고 나노 기술과 통신 기술의 융합을 위한 주요 핵심 연구이슈를 제시한다.

다국어 초록 (Multilingual Abstract)

Nano communication system technologies are future core technologies that facilitate the implementation of tiny wireless communication systems with sizes in the range of hundreds of nanometers to tens of micrometers, which cannot be implemented by current wireless communication system technologies. In particular, novel nano communication system technology, which is based on electrical and mechanical resonance characteristics of
carbon nanotube(: CNT), does not simply miniaturize system modules, but suggests a new approach that changes system architectures. Therefore, this paper surveys the state of the art on CNT-based nano communication technologies in aspects of system implementation, and proposes important research issues for convergence of nano and communication technologies.

목차 (Table of Contents)

• Ⅰ. 서 론
• Ⅱ. 극소형 무선 송수신기 기술 동향
• Ⅲ. CNT 기반 나노 통신 시스템
• Ⅳ. 주요 연구 이슈
• Ⅴ. 결 론
• References

참고문헌 (Reference)

1 D. Dragoman, "Tunneling Nanotube Radio" 104 (104): 074314-, 2008

2 P. Burke, "Towards a single-chip, implantable RFID system: is a single-cell radio possible?" 12 (12): 589-596, 2010

3 I. Akyildiz, "The Internet of Nano-Things" 17 (17): 58-63, 2010

4 J. Weldon, "Sustained Mechanical Self-Osciilations in Carbon Nanotubes" 10 (10): 1728-1733, 2010

5 P. J. Burke, "Quantitative theory of nanowire and nanotube antenna performance" 5 (5): 314-334, 2006

6 S. Santra, "Post-CMOS Wafer Level Growth of Carbon Nanotubes for Low-Cost Microsensors – a Proof of Concept" 21 (21): 485301-, 2010

7 K. Jensen, "Nanotube Radio" 7 (7): 3508-3511, 2007

8 J. She, "Nanotechnoogy-Enabled Wireless Sensor Networks: From a Device Perspective" 6 (6): 1331-1339, 2006

9 J. Weldon, "Nanomechanical radio transmitter" 245 (245): 2323-2325, 2008

10 M. Dragoman, "High quality nanoelectromechanical microwave resonator based on a carbon nanotube array" 92 : 063118-, 2008

11 J. Jornet, "Graphene-based Nano-antennas for Electromagnetic Nanocommunications in the Terahertz Band" 2010

12 P. Poncharal, "Electrostatic Deflections and Electromechanical Resonances of Carbon Nanotubes" 283 (283): 1513-1516, 1999

13 I. Fkyildiz, "Electromagnetic Wireless Nanosensor Networks" Elsevier 1 (1): 3-19, 2010

14 C. E. Koksal, "Design and Analysis of Systems Based on RF Receivers with Multiple Carbon Nanotube Antennas" Elsevier 1 (1): 160-172, 2010

15 B. Atakan, "Carbon Nanotube-Based Nanoscale Ad Hoc Networks" 48 (48): 129-135, 2010

16 B. Atakan, "Carbon Nanotube Sensor Networks" 2009

17 C. Rutherglen, "Carbon Nanotube Radio" 7 (7): 3296-3299, 2007

18 W. Heer, "Carbon Nanotube Field Emission Electron Source" 270 (270): 1179-1180, 1995

19 N. Mathur, "Beyond the silicon road map" 419 : 573-575, 2002

20 C. Koksal, "A Nanoradio Architecture for Interacting Nanonetworking Tasks" Elsevier 1 (1): 63-75, 2010

21 D. Shi, "A Fully Integrated CMOS Receiver" The University of Michigan 2008

22 M. Usami, "A 0. 05x0. 05 mm2 RFID Chip with Easily Scaled-Down ID-Memory" 2007