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Computational Ecology and Environment Science  

Computational Ecology and Environmental Science

Developing novel computational tools and methods to predict and mitigate the rapid changes occurring in the earth’s life support systems.


Understanding the earth’s life support systems, and predicting and mitigating the rapid changes that are occurring in these systems because of human activities is one of the great global scientific challenges humanity is currently facing. The programme in ecological and environmental sciences aims to contribute to meeting this challenge by working with the scientific community to identify critical problems and develop novel computational methods and tools for addressing these problems. Problems range from the management and integration of the ever-expanding body of ecological and environmental data to developing novel data analysis and visualization methods to developing advanced predictive models of biotic and coupled biotic and physical systems at scales from local to global.

Team

We are a young and growing group with an extended family of collaborators in Europe and elsewhere.

Small photo of Drew Purves
Drew
Purves

(Scientist)

Small photoof Leeza Pachepsky
Elizaveta ‘Leeza’
Pachepsky

(Postdoc)

Small photo of Greg McInerny
Greg
McInerny
(Postdoc)

Small photo of Matthew Smith
Matthew
Smith

(Postdoc)

Small photoof Rich Williams
Rich
Williams

(Head of group)

Small photoof Robin Freeman
Robin
Freeman

(Postdoc)

   

Projects

  • Autonomous Monitoring of Vulnerable Habitats
    Automatic monitoring of the effects of changing environmental conditions on the ecology and behaviour of the Manx Shearwater. (Robin Freeman)
  • Cambridge University Herbarium Digitisation
    Digitization and online publication of the most scientifically and historically significant parts of the Cambridge University Herbarium’s collection. (Rich Williams)
  • Computational Tools for Biodiversity Science
    A multi-institution consortium addressing the scientific and technological needs of biodiversity scientists and policy makers. (Rich Williams & Elizaveta Pachepsky)
  • Data-constrained Simulation Modelling of Plant Growth
    Plant communities may act to amplify or dampen changes in the Earth’s climate system caused by anthropogenic CO2 pollution, but current understanding of these potential effects is limited by a lack of quantitative knowledge of individual plant growth. This project will build a tool for defining, parameterizing, and running simulations of non-linear biological models, and use this tool to generate plant growth models whose predictions can be trusted enough to integrate into larger analyses. (Drew Purves)
  • Environmental Scenario Search Engine
    Developing tools to do fuzzy logic queries on terabyte datasets. (Rich Williams)
  • Structure and Dynamics of Complex Ecological Networks
    Computational approaches to studying food webs, networks of who eats whom in an ecosystem. (Rich Williams)
  • Toolbox for Spatial Analysis of Invasive Species Spread
    Invasive species are causing significant economic and environmental damages worldwide. This project will develop a tool to calculate the rate of spatial spread of an invasive species though habitat, and to determine the factors that determine that rate. (Elizaveta Pachepsky)
  • Tools for the Analysis, Interpretation, and Visualization of Primary Biodiversity Data from Mexican Cloud Forests
    Evaluating and applying emerging ecological niche modelling techniques to study the changing distribution of Mexican cloud forests. (Rich Williams)
  • Using 25 Years of Infra-red Satellite Data to Derive a New Global Fire Model
    Forests harbour around 60% of the world’s biodiversity and around half of its terrestrial carbon, so there is an urgent need to predict how forests will respond to increased atmospheric CO2, logging and land-use change.  This project will collate millions of pre-existing field measurements of trees from national forest inventories into a coherent, user-friendly database and use this data in the development and parameterization of models fire at global scales. (Drew Purves)

Some Projects in Development

Ecological Data Management.

Working closely with academic partners to identify common themes and problems in the management of such data, we aim to create the tools that allow ecologists to collate, manage and disseminate their data in an efficient, powerful but easy to use way. (Robin Freeman)

Spatial Modelling and Optimization Tools for Conservation Science.

This project will develop a spatial modelling and optimization tools for optimal marine reserve design and other optimization problems in ecology and biology. (Elizaveta Pachepsky)

Analysing Animal Movement.

High resolution data from animal movement can now be collected allowing researchers to identify changes in the animals’ behaviour. Here, we hope to create tools and techniques that allow researchers to apply these tools to arbitrary positional information. (Robin Freeman)

Building a Global Database of Forest Inventory Data.

Forests harbour around 60% of the world’s biodiversity and around half of its terrestrial carbon, so there is an urgent need to predict how forests will respond to continuing anthropogenic perturbations including increased atmospheric CO2, logging and land-use change. To aid in the development and parameterization of models to predict these responses, this collaboration will collate millions of pre-existing field measurements of trees from national forest inventories, into a coherent, user-friendly database. (Drew Purves)

 

Careers opportunities

 
 
Computational Biological Sciences
 
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