Integrating LiDAR Topography Into the Study of Earthquakes and Faulting

abstract: Meter-resolution topography gathered by LiDAR (Light Detection and Ranging) has become an indispensable tool for better understanding of many surface processes including those sculpting landscapes that record information about earthquake hazards for example. For this reason, and because of...

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Other Authors: Robinson, Sarah E. (Author)
Format: Dissertation
Language:English
Published: 2011
Subjects:
Online Access:http://hdl.handle.net/2286/R.I.9484
id ndltd-asu.edu-item-9484
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spelling ndltd-asu.edu-item-94842018-06-22T03:02:07Z Integrating LiDAR Topography Into the Study of Earthquakes and Faulting abstract: Meter-resolution topography gathered by LiDAR (Light Detection and Ranging) has become an indispensable tool for better understanding of many surface processes including those sculpting landscapes that record information about earthquake hazards for example. For this reason, and because of the spectacular representation of the phenomena that these data provide, it is appropriate to integrate these data into Earth science educational materials. I seek to answer the following research question: "will using the LiDAR topography data instead of, or alongside, traditional visualizations and teaching methods enhance a student's ability to understand geologic concepts such as plate tectonics, the earthquake cycle, strike-slip faults, and geomorphology?" In order to answer this question, a ten-minute introductory video on LiDAR and its uses for the study of earthquakes entitled "LiDAR: Illuminating Earthquake Hazards" was produced. Additionally, LiDAR topography was integrated into the development of an undergraduate-level educational activity, the San Andreas fault (SAF) earthquake cycle activity, designed to teach introductory Earth science students about the earthquake cycle. Both the LiDAR video and the SAF activity were tested in undergraduate classrooms in order to determine their effectiveness. A pretest and posttest were administered to introductory geology lab students. The results of these tests show a notable increase in understanding LiDAR topography and its uses for studying earthquakes from pretest to posttest after watching the video on LiDAR, and a notable increase in understanding the earthquake cycle from pretest to posttest using the San Andreas Fault earthquake cycle exercise. These results suggest that the use of LiDAR topography within these educational tools is beneficial for students when learning about the earthquake cycle and earthquake hazards. Dissertation/Thesis Robinson, Sarah E. (Author) Arrowsmith, Ramon (Advisor) Reynolds, Stephen J (Committee member) Semken, Steven (Committee member) Arizona State University (Publisher) Geology Geomorphology Plate Tectonics earthquake earthquake cycle education geology geomorphology LiDAR eng 101 pages M.S. Geological Sciences 2011 Masters Thesis http://hdl.handle.net/2286/R.I.9484 http://rightsstatements.org/vocab/InC/1.0/ All Rights Reserved 2011
collection NDLTD
language English
format Dissertation
sources NDLTD
topic Geology
Geomorphology
Plate Tectonics
earthquake
earthquake cycle
education
geology
geomorphology
LiDAR
spellingShingle Geology
Geomorphology
Plate Tectonics
earthquake
earthquake cycle
education
geology
geomorphology
LiDAR
Integrating LiDAR Topography Into the Study of Earthquakes and Faulting
description abstract: Meter-resolution topography gathered by LiDAR (Light Detection and Ranging) has become an indispensable tool for better understanding of many surface processes including those sculpting landscapes that record information about earthquake hazards for example. For this reason, and because of the spectacular representation of the phenomena that these data provide, it is appropriate to integrate these data into Earth science educational materials. I seek to answer the following research question: "will using the LiDAR topography data instead of, or alongside, traditional visualizations and teaching methods enhance a student's ability to understand geologic concepts such as plate tectonics, the earthquake cycle, strike-slip faults, and geomorphology?" In order to answer this question, a ten-minute introductory video on LiDAR and its uses for the study of earthquakes entitled "LiDAR: Illuminating Earthquake Hazards" was produced. Additionally, LiDAR topography was integrated into the development of an undergraduate-level educational activity, the San Andreas fault (SAF) earthquake cycle activity, designed to teach introductory Earth science students about the earthquake cycle. Both the LiDAR video and the SAF activity were tested in undergraduate classrooms in order to determine their effectiveness. A pretest and posttest were administered to introductory geology lab students. The results of these tests show a notable increase in understanding LiDAR topography and its uses for studying earthquakes from pretest to posttest after watching the video on LiDAR, and a notable increase in understanding the earthquake cycle from pretest to posttest using the San Andreas Fault earthquake cycle exercise. These results suggest that the use of LiDAR topography within these educational tools is beneficial for students when learning about the earthquake cycle and earthquake hazards. === Dissertation/Thesis === M.S. Geological Sciences 2011
author2 Robinson, Sarah E. (Author)
author_facet Robinson, Sarah E. (Author)
title Integrating LiDAR Topography Into the Study of Earthquakes and Faulting
title_short Integrating LiDAR Topography Into the Study of Earthquakes and Faulting
title_full Integrating LiDAR Topography Into the Study of Earthquakes and Faulting
title_fullStr Integrating LiDAR Topography Into the Study of Earthquakes and Faulting
title_full_unstemmed Integrating LiDAR Topography Into the Study of Earthquakes and Faulting
title_sort integrating lidar topography into the study of earthquakes and faulting
publishDate 2011
url http://hdl.handle.net/2286/R.I.9484
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