Statistical techniques for estimating directional ocean waves
Published research by Jake Grainger explores statistical techniques that better utilise ocean buoy data to help characterise the ocean wavefield.
Published research by Jake Grainger explores statistical techniques that better utilise ocean buoy data to help characterise the ocean wavefield.
Luke Jenkins publishes research in ‘Natural Hazards’ that provides evidence for the prevalence of consecutive storms, big waves or high tide events occurring over a short period of time (known as clustering) around the UK.
Freya Muir publishes her research in ‘Earth Surface Processes and Landforms’ as well as an open-source tool for mapping coastal change, known as VedgeSat.
Two papers published in the Journal of Hydrology explore how to quantify the impacts of natural flood management (NFM), specifically leaky dams in upland catchments, on the downstream flood peak magnitude.
New research explores events in northern England where river water levels rise very rapidly and are extremely hazardous to river users.
The flood hydrology roadmap sets out a vision to help scientists and practitioners across the UK better predict future flood events and improve flood resilience across the UK.
In this article, we explore the importance of earth observation (EO) data for identifying flood extents and how a new method for validating flood maps enables a quantitative, location specific measure of flood map accuracy
Understanding the characteristics of wind-generated waves is important for modelling structural responses in ocean engineering. This paper explores statistical techniques to improve the understanding of estimated parameters of wind-generated waves and help oceanographers gain insights into their behaviour.
This paper explores how flood risk management can utilise the exponential increase in ‘big’data’ generated by a range of sources including satellites, mobile phones, ground-based sensors and citizen science. It proposes approaches to collate, integrate and query data from unstructured and disparate data sources.
This network model highlights the need for robust design of nature-based flood risk measures and allows rapid assessment of the whole-system performance of leaky barriers in real stream networks.