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Dr Weisi Guo

Assistant Professor
cusp.pngnyuMIEEE, MIET, FHEA
University of Cambridge: MEng, MA, PhD

Co-Lead in Engineering's Research Theme on Cities 
Warwick Institute for Science of Cities (WISC)WISC
Exchange Ass. Prof. at New York University's CUSP

A419, School of Engineering,
University of Warwick,
West Midlands, CV4 7AL
weisi.guo [AT]
Phone: +44 (0)24 765 22223

Office Hours for Spring Term: Mon & Tue (2-3pm) Wed (11am-12pm)

[Google Scholar] [ResearchGate] [WRAP]

Brief Bio

guo2Weisi graduated from the University of Cambridge with MEng, MA, PhD (2011) degrees. His research expertise is in Information (signals, data, communications) and Networks (heterogeneous, dynamic, resilience). The multi-scale application areas range from connected interacting cities to telecommunication networks to the Internet of Nano Things. He is an ambitious early-career academic - published over 90 peer reviewed papers (42 journal papers) and has 880+ citations (h-index 15). His research has won him a number of awards & nominations (IEEE, Bell Labs, IET) and he has received funding from the Royal Society, British Council, US Air Force, and the ATI/LRF. He is known for his discoveries in complex network modeling of international stability (preprint [arXiv]) and molecular communications (media coverage [Economist][Wired][CNet]).

In his private life, his life experiences include working in UNHCR refugee camps in Africa, being part of the victorious Cambridge Varsity archery team (2002), solo climbed two of the highest sub-continent peaks, and served as badminton captains at Cambridge and Sheffield. He has also completed the full London (2007) and full Sahara (2010) marathons.

Research Overview

cpI am generally interested in the physical laws which govern multi-scale communication and interaction networks, and the research intersection with urban science and social physics. I am part of the core team in an alliance of smart city research universities worldwide: (NYU, Warwick, Toronto, CMU, Mumbai, KCL).

To that end, I am actively involved in developing appropirate data collection and spatial network modeling methods for cities, as well as designing novel communication networks for extreme and hostile environments.

My current research areas are as follows:

  • [Multi-Scale Network Modeling]: dynamic heterogeneous networks, stochastic spatial processes, complex network theory, resilience to attacks, network scalability (energy-cost-capacity);
  • [Nano-Scale Networks]: test-bed system design, hostile environment testing, low complexity signal processing, biomedical applications;
  • [Mobile Sensing & Big Data]: smart city intelligence, underground sensing, social media analytics, smartphone sensing;

Anyone interested in collaboration or degree opportunities, please visit my research page here. My current research team details are here.

Current Team
  • PhD Students (5): Hu Yuan, Song Qiu, Neha Gupta, Guillem Mosquera, John Gilchrist
  • Project Students (4): Harry Wang, Uzair Hayat, Sandy Tang, Issac Johnson

Active Projects
  • "MolSig: Molecular Signaling in Complex Environments," US Air Force (2017-21) [Link]
  • "Resilient Networks," ATI & LRF (2017-19)
  • "SmallTalk: Talking between Small Things," Royal Society and NSFC (2016-18) [Link]
  • "High Speed Rail Sensing and Communications," Warwick RDF (2016-17)
  • "Mobile Sensing Sunlight Exposure in Cities," Warwick Alumni Donation & WMG (2014-16, 2016-2020)

Sticky News:

BLP[Award News]: Finalist of Bell Labs Prize 2014 and Semi-Finalist of Bell Labs Prize 2016


[Award News]: PhD Students win IEEE ComSoc 2014 Award - 2nd Prize ($1000 at GLOBECOM)


[Award News]: Winner of IET Innovation Award 2015 - Communications Category on: Molecular Communication Systems for Harsh Environments

Recent News:

cell_network[PhD Opening]: Looking for a new PhD student with physics/maths background to conduct research in molecular signalling networks. Fully funded at UK/EU rates [Link].

Dec 15 [Conference]: Effective enzyme deployment for degradation of interference in molecular communications accepted to IEEE WCNC.

Nov 27 [Journal]: Molecular fading channel due to diffusivity fluctuations accepted to IEEE Communications Letters.