Disease Transmission

Aerosols play important roles in the transmission of airborne pathogens between an infected host and a susceptible individual. CDT projects are exploring the links between aerosol microphysics and airborne pathogen survival, the interactions with ambient environmental aerosol and pollution, and new approaches to model aerosol transport and deposition. They are also developing new tools to sample and detect airborne biological aerosol and pathogens.

Comparing the Airborne Survival of Enveloped and Non-enveloped Viruses

Respiratory aerosol particles transmit pathogens such as SARS-CoV-2 between infected and susceptible individuals. While airborne, the infectivity of viruses declines at a rate that is influenced by the microphysical processes occurring in the aerosol (e.g. water evaporation). This project will compare the airborne survival of enveloped and non-enveloped viruses.

PhD student: Kennedy Peek
Cohort: 4
Lead supervisors: Prof Andrew Davidson & Prof Jonathan Reid
Institution: University of Bristol

Digital Microfluidic Lab-on-a-chip for multiplex detection of biomarkers in exhaled breath

Exhaled aerosols contain precious information on lung health, which could inform diagnosis and therapies and help saving lives. This project will combine emerging microfluidic and lab-on-a-chip technologies to create a portable and fully automated Lab-on-a-chip for detection of multiple disease biomarkers in exhaled aerosols.

PhD student: Daisy Ashton
Cohort: 4
Lead supervisors: Dr Loic Coudron, Dr Laura Urbano and Dr Ian Johnston
Institution: University of Hertfordshire

Interaction of SARS – CoV2 and Influenza Viruses with Particulate Matter Air Pollution

Higher transmission rates and worsening of health outcome from exposure to SARS-CoV-2 and influenza has been linked to high levels of pollution exposure. This PhD will characterise whether the airborne spread, transmission and infectivity of influenza virus and SARS-CoV-2 increases by hitchhiking on to particulate matter pollution.

PhD student: Erin Kiely
Cohort: 4
Lead supervisor: Prof Alexandra Porter and Prof Kian Fan Chung
Institution: Imperial College London

The structure of exhaled droplets and aerosols

As we know only too well many diseases are transmitted via exhaled droplets/aerosols. Despite their importance we don’t currently have a good understanding of their composition, drying behaviour or structure. This project will develop techniques to characterise these aerosols and, by drying droplets of synthetic respiratory fluid, investigate how the structures are formed.

PhD student: Faizan Ahmad
Cohort: 4
Lead supervisor: Prof. Andrew E. Bayly
Institution: University of Leeds

Modelling of airborne transmissions of respiratory droplets containing COVID-19 virus

COVID-19 virus spreads by the inhalation of “airborne” microscopic respiratory droplets and after evaporation by aerosols of their solid residues. In this project, a first-principle model of the evaporation and subsequent dispersion of the aerosol in air within a room will be developed to provide effective guidelines for safe and social distancing.

PhD student: Benjamin Mignot
Cohort: 3
Lead supervisor: Dr Tariq Mahmud
Institution: University of Leeds

Exhalation, inhalation dynamics of aerosol and airborne transmission disease

Understanding the impact that airborne transport has on pathogens and the influence of environmental conditions on pathogen survival can inform the implementation of strategies to mitigate the spread of diseases such as COVID. However, from the point of generation to exhalation and inhalation dynamic of aerosol is poorly understood.

PhD student: Jianghan Tian
Cohort: 2

Lead supervisor: Prof Jonathan Reid
Institution: University of Bristol

Replication and modelling of infectious respiratory droplets in humans and animals

Using novel aerosol technologies with human and animal samples and pathogens for the first time, the project aims to understand how the changing environment of respiratory droplets influences pathogen viability and transmission. Such understanding through this interdisciplinary approach could aid development of strategies to prevent the spread of respiratory infections.

PhD student: Robert Alexander
Cohort: 2
Supervisor: Dr Darryl Hill
Institution: University of Bristol

Collection methods for early detection of airborne viruses

Airborne aerosols are a primary transport mechanism for many diseases. Through experimentation, computational modelling and engineering prototyping, you will investigate aerosol capture mechanisms for effective real-time monitoring of disease transportation. This will include fundamental studies on the properties of the collected material and the principles of aerosol collection.

PhD student: Stanislaw Koper
Cohort: 2
Lead supervisor: Dr Daniel McCluskey
Institution: University of Hertfordshire

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EPSRC CDT in Aerosol Science

University of Bristol
School of Chemistry
Cantock’s Close
Bristol, BS8 1TS

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