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Detection Techniques for Diffusion-based Molecular Communication.

, , , and . IEEE J. Sel. Areas Commun., 31 (12-Supplement): 726-734 (2013)

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Quorum Sensing-enabled amplification for molecular nanonetworks., , , and . ICC, page 6162-6166. IEEE, (2012)Detection Techniques for Diffusion-based Molecular Communication., , , and . IEEE J. Sel. Areas Commun., 31 (12-Supplement): 726-734 (2013)Poster: Safe V2X Communication for Cooperative Automated Driving., , , and . VNC, page 163-164. IEEE, (2023)Time-Domain Analysis of Graphene-Based Miniaturized Antennas for Ultra-Short-Range Impulse Radio Communications., , , , , and . IEEE Trans. Commun., 63 (4): 1470-1482 (2015)On the scalability limits of communication networks to the nanoscale.. Polytechnic University of Catalonia, Spain, (2014)Analytical Performance Evaluation of the Collective Perception Service in IEEE 802.11p Networks., , , and . WCNC, page 1-6. IEEE, (2020)Diffusion-based physical channel identification in molecular nanonetworks., , , , and . Nano Commun. Networks, 2 (4): 196-204 (2011)Object Detection Probability for Highly Automated Vehicles: An Analytical Sensor Model., , and . VEHITS, page 223-231. SciTePress, (2019)Simulation of cooperative automated driving by bidirectional coupling of vehicle and network simulators., , , , , and . Intelligent Vehicles Symposium, page 1881-1886. IEEE, (2017)A Vertical Methodology for the Design Space Exploration of Graphene-enabled Wireless Communications., , , , and . NANOCOM, page 15:1-15:6. ACM, (2015)