Geographic Information Systems (GIS) and spatial analysis are central components of my scientific toolbox, enabling the visualization, interpretation, and communication of complex geographic and environmental data. My formal training in GIS complements my geoscience background, allowing me to integrate place-based data with advanced analytical methods to support research, decision making, and scientific communication.
I completed the Geographic Information Systems and Technology Certificate at the University of California, Los Angeles (UCLA). This rigorous five-course program provided hands-on experience with geospatial data management, spatial analysis, cartographic design, GIS programming, and enterprise GIS implementations. This training enhanced my ability to apply spatial reasoning to scientific, environmental, and educational challenges.
Geospatial data acquisition, cleaning, and validation
Spatial interpolation and surface modeling
Raster and vector analysis for environmental and demographic applications
Thematic and comparative map design
Visual communication of spatial patterns and trends
Map production for digital and print dissemination
Scripting for spatial analysis workflows
GIS database design and optimization
Custom geoprocessing tools and analytical automation
ArcGIS Pro, ArcGIS Enterprise, and ArcGIS Online
StoryMaps and interactive spatial narratives
Field data collection workflows and mobile GIS integration
ArcGIS Pro | ArcGIS Enterprise | ArcGIS Online | StoryMaps | Field Maps | ArcCatalog | 3D Analyst | ArcMap
QGIS | Surfer | Grapher | Tableau
For my GIS certificate capstone, I created a map of Holocene volcanoes in California using ArcGIS Pro. The map highlights spatial relationships between historically large earthquakes and volcanism, demonstrating spatial clustering and risk visualization.
I developed a series of ArcGIS Pro maps to compare spatial interpolation methods for climate data, analyzing estimated average high temperatures across California for January and August. Using NOAA 2010 normal monthly temperatures, I evaluated inverse distance weighting (IDW) and Empirical Bayesian Kriging (EBK) to determine method performance and implications for regional climate interpretation.
IDW optimized with 8 sectors produced mean prediction errors of 0.3605 (January) and –0.1307 (August).
EBK with log empirical transformation and K-Bessel semivariogram produced mean prediction errors of 0.1141 (January) and 0.1317 (August).
Comparative analysis showed minimal variance between top-ranked cities across methods.
I applied spatial market analysis techniques in ArcGIS Pro to assess service area coverage and store viability for retail locations in Riverside, California. By integrating population and demographic data with store geographies, I identified coverage gaps and recommended strategic closures based on service area overlap and customer access.
For projects requiring rapid production or open-source workflows, I frequently use QGIS. Examples include submarine volcanism and bathymetric mapping for California Badlands seamount research, as well as spatial visualization of NSF-funded oceanographic core data.
I designed an ArcGIS StoryMap to document a GPS data collection venture at a local hiking area, demonstrating field mapping workflows and spatial storytelling techniques.