Automated Damage Assessment from High Resolution Remote Sensing Imagery

Master's Thesis

Abstract

Estimating the extent of damage caused by natural disasters is necessary for implementing effective recovery measures. Damage detection from high-resolution satellite or aerial imagery for post-disaster analysis has been a major research effort in the past decade. A careful analysis of images from before and after an event facilitates rapid detection and assessment of building damage. This work presents a first-of-its-kind system for automatic damage assessment. The proposed framework for damage estimation consists of three steps. First the pre-event and post-event images are registered automatically. A SURF-based feature extraction and matching technique is used for automatic image registration. Next, the objects of interests such as buildings are extracted from pre-storm images. A novel robust algorithm for building detection is proposed and evaluated. Lastly, change detection is performed and damage is classified using supervised learning algorithms. Relevant features that reflect the spectral properties of damaged buildings are identified and used to classify the damage level into various states.

Attributes

Attribute NameValues
URN
  • etd-07202010-163757

Author Jim Thomas
Advisor Kevin Bowyer
Advisor Ahsan Kareem
Contributor Christian Poellabauer, Committee Member
Contributor Ahsan Kareem, Committee Co-Chair
Contributor Soma Biswas, Committee Member
Contributor Kevin Bowyer, Committee Co-Chair
Degree Level Master's Thesis
Degree Discipline Computer Science and Engineering
Degree Name Master of Science in Computer Science and Engineering
Defense Date
  • 2010-07-15

Submission Date 2010-07-20
Country
  • United States of America

Subject
  • computer vision

  • machine learning

  • damage assessment

  • remote-sensing

Publisher
  • University of Notre Dame

Language
  • English

Record Visibility Public
Content License
  • All rights reserved

Departments and Units

Digital Object Identifier

doi:10.7274/d791sf28d1c

This DOI is the best way to cite this master's thesis.

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