Matt leads the Atmospheric Dispersion and Air Quality Team, which investigates the transport, dispersion and chemistry of substances released into the atmosphere.
Matt manages the Atmospheric Dispersion and Air Quality Team. The Team's focus is on research in the field of atmospheric dispersion and composition. This includes the development and application of the Met Office's Numerical Atmospheric-dispersion Modelling Environment (NAME) for emergency response events including industrial fires, the spread of animal diseases, nuclear accidents and volcanic eruptions, and the development of air quality forecasting and modelling in the Met Office's Unified Model.
Matt joined the Met Office in 1999. He began by developing and writing code for NAME including work on modelling the flow around isolated buildings and small scale terrain. He later moved on to the application of dispersion modelling for operational emergency response activities (e.g., radiological accidents, nuclear explosions, volcanic eruptions, industrial accidents) and was responsible for supporting and developing the capability of the Met Office 24/7 Environmental Monitoring and Response Centre (EMARC).
In 2009 he became the manager of the Atmospheric Dispersion Research and Response Group. The focus of the group's work is the use of the NAME for emergency response applications ranging in scale from releases in the urban environment to nuclear disasters and volcanic eruptions. This work is essential to the activities of, and requires collaboration with, many UK and international organisations. Matt became the Head of the Atmospheric Dispersion and Air Quality Team in 2013.
Prior to joining the Met Office, Matt worked as a researcher within ENFLO at the University of Surrey, carrying out wind tunnel studies looking at the dispersion of gaseous emissions around petrochemical storage facilities. Before this, Matt completed a PhD within the Mechanical Engineering Department at the University of Surrey on direct numerical simulations of transient natural convection within horizontal cylindrical enclosures.
Last updated: 13 May 2014