An Infrared Quantitative Imaging Technique (IR-QIV) for Remote Sensing of River Flows

Authors

  • Edwin Alfred Cowen DeFrees Hydraulics Laboratory, School of Civil & Environmental Engineering, Cornell University, United States of America
  • Seth Avram Schweitzer DeFrees Hydraulics Laboratory, School of Civil & Environmental Engineering, Cornell University, United States of America

DOI:

https://doi.org/10.18409/ispiv.v1i1.52

Keywords:

turbulence, remote sensing, infrared, PIV, rivers

Abstract

Stage and discharge are some of the oldest measurements in environmental fluid mechanics and are vital in forecasting water supply and flood safety. These measurements are traditionally manpower intensive, hence expensive, and dangerous under high flow conditions. Considering climate change and the planet’s increasing population there is a critical need for better, more accurate, and frequent, in space and time, data for model and forecast guidance. This need spans monitoring small-scale turbulent processes to calibrating and nudging continental scale river dynamics models. Driven by applications from river gaging networks to fish behavior modeling to flood and erosion forecasting, and more generally, the near-shore environment of lakes, estuaries and the coasts, remote sensing with quantitative imaging tools is a rapidly expanding field. Such tools can be deployed from fixed platforms, drones, planes and satellites with valuable information contained within the visible to infrared spectral bands.

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Published

2021-08-01

Issue

Section

Environmental Flows