IDTReeS
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IDTReeS

Integrating Data science with Trees and Remote Sensing

IDTReeS project overview showing tree crown detection

IDTReeS Overview

Understanding and managing forests is crucial to understanding and potentially mitigating the effects of climate change, invasive species, and shifting land use on natural systems and human society. However, collecting data on individual trees in the field is expensive and time consuming, which limits the scales at which this crucial data is collected. Combining large scale survey efforts with remotely sensed imagery from satellites, airplanes, and drones provide the potential to observe ecosystems at much larger scales than using field data alone.

Map showing NEON sites across the United States with domain, site, and plot scale panels

Map of United States with National Ecological Observatory Network sites

Our group works across scale from individual trees to the continent and incorporates a variety of field and remote sensing data including National Ecological Observatory Network (NEON; neonscience.org) and USFS Forest Inventory and Analysis (https://www.fia.fs.fed.us/).

What we do:

We are combining remote sensing imagery, large scale surveys, and data science methods, to help understand forests at scales from individual trees to entire continents. Our group will contribute to the following advancements (Read more about each of these aspects of our work on the Projects page):

  1. View 115 million tree predictions from NEON (select NEON Predictions)

Screenshot of NEON tree crown predictions interface

NEON tree predictions visualization
  1. Produce improved spatially explicit data on species and traits for ~50 million individual trees

Visualization of spatially explicit tree species data

Tree species and traits data
  1. Disentangle the importance of processes driving species distribution, abundance, and biodiversity across scales, including cross-scale interactions.

Figure showing biodiversity patterns and species distribution

Biodiversity patterns across scales
  1. Develop cross-scale models of tree structural traits and allometry that incorporate environmental variation and biological interactions

Figure showing tree structural traits models

Tree structural traits and allometry

We are also actively producing data sets, code, and protocols to allow for other researchers to easily build from what we have done. See the Products page for more information.

Who we are:

We are an interdisciplinary team of faculty and students based at the University of Florida, with post docs and researchers based across the US. Our combined expertise is in forest ecology, remote sensing, data science, machine learning, and modeling. Read more about our team members on the About Us page.

NoteFunding

This research is supported by the National Science Foundation through grant 1926542 to E.P. White, S.A. Bohlman, A. Zare, D.Z. Wang, and A. Singh.


Data Science Challenge

A data science challenge using ecological data to scale up ecological patterns.

NIST DSE Plant Identification

NIST DSE Plant Identification with NEON Remote Sensing Data.


Find Us

Address Building 150, University of Florida, Gainesville, FL

Email contact@weecology.org

Copyright © 2021-2024 IDTReeS

Supported by the National Science Foundation grant 1926542

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