164857-Thumbnail Image.png
Description
Hydrologic modeling in snowfed karst watersheds is important for many communities relying on their water for municipal and agricultural use, but the complexities of karst hydrology have made this task historically difficult. Here, two Long Short-Term Memory (LSTM) models are

Hydrologic modeling in snowfed karst watersheds is important for many communities relying on their water for municipal and agricultural use, but the complexities of karst hydrology have made this task historically difficult. Here, two Long Short-Term Memory (LSTM) models are compared to investigate this problem from a deep-learning perspective within the context of the Logan River Canyon watershed, which supplies water to Logan City, UT. One is spatially lumped and the other spatially distributed, the latter with a potential to reveal underlying spatial watershed dynamics. Both use snowmelt and rainfall to predict daily streamflow downstream. I find distributed LSTMs consistently outperform lumped LSTMs in this task. Additionally, I find that a spatial sensitivity analysis of distributed LSTMs is unpromising in revealing spatial watershed dynamics but warrants further investigation.
Reuse Permissions


  • Download restricted.
    Restrictions Statement

    Barrett Honors College theses and creative projects are restricted to ASU community members.

    Download count: 1

    Details

    Title
    • Long Short-Term Memory for Karst Watershed Modeling: Case Study of Logan River Canyon, UT, USA
    Contributors
    Date Created
    2022-05
    Resource Type
  • Text
  • Machine-readable links