GeoConnect: Creating a research-informed UC-wide GIS resource
GeoConnect is a project to 1) assess what GIS users on our campuses seek with regards to geospatial resources and support, and 2) to collaboratively organize and maintain these resources into a centralized hub to support the UC community. The project arose out of conversations among members of the UC/Stanford Maps & Geospatial Data Common Knowledge Group and the University of California GIS Committee or UC GIS (composed of GIS professionals and users from across the UC system). Noting that we have 10 campuses maintaining separate resource guides containing similar information, we then asked “How can we collaborate on a UC-wide resource guide and share the labor?” This effort is challenging due to the nature of GIS software, data, and availability of collaborative resource solutions. GIS is a broad and rapidly evolving field in regards to software applications and their features. Similarly, there is an ever-shifting landscape of authoritative datasets from different levels of government, both nationally and internationally, as well as other authoritative agencies or organizations. In addition, the UC system currently lacks cross-institutional solutions that would enable a more effective approach to collaboratively provide GIS support on our campuses. The GeoConnect Working Group is a combination of librarians and campus GIS staff from across the UC system. We received LAUC funding to research the obstacles facing GIS users across our campuses, evaluate their information-seeking behavior, and create a centralized GIS resource hub. This presentation will highlight the findings from our cross-campus survey and focus groups with students, faculty, staff, and researchers from across the UC. It will also include a sneak-peek at the shared resource the GeoConnect team is developing.
Designing a Campus Map in Experience Builder
Under development since 2024, this presentation will cover the progress and enhancements made in developing UCSD's Campus Map in Experience Builder. The Experience Builder Campus Map will eventually replace the current Concept3D platform. The aim of the presentation is to showcase the Experience Builder layout, widgets, triggers and actions used to design a highly interactive, user-friendly campus map. A description of the button configuration, side-panels, views, search and directions will be provided. The presentation will also cover the creation of the campus vector tile basemap using Esri's Vector Tile Style Editor and sprites, which has greatly increased drawing times. The map will also feature real time transportation information, ingested via GTFS-RT APIs in GeoEvent Server.
Bridging Campus and Operations with Location Intelligence
Report It Now is an ArcGIS Online–based platform that empowers campus community members to report non-emergency issues—such as maintenance, safety, accessibility, and environmental concerns—directly on a map. By integrating spatial reporting with operational workflows, the system streamlines communication between users and departments including Facilities Management, Environmental Health & Safety, and Transportation. Since launch, more than 300 submissions have been recorded, categorized, and tracked through an interactive application that visualizes issue status and spatial distribution. Beyond improving reporting efficiency, Report It Now demonstrates how GIS supports data-driven operations by revealing spatial patterns. These insights help prioritize maintenance, allocate resources, and inform long-term planning. The project highlights how location intelligence can strengthen engagement, transparency, and operational effectiveness within a campus environment.
UC Damage Assessment Exercise
In October of 2025, the UC Damage Assessment Exercise was held by the UCGIS Facilities & Operations Workgroup and coordinated with Emergency Managers from across the UC. The month-long exercise put mobile GIS tools in the hands of campus operations staff to report hazards and/or to submit building damage assessments. The results were then visualized on ArcGIS Dashboards and Attachment Viewers, providing participants with direct and instant access to information. This presentation will show the exercise results and feedback from the participants.
High-Resolution Mapping: UAVs Meet GIS
The increasing frequency and severity of wildfires in California have a raising concerns for both human communities and ecosystems. But the fire dynamic and structures are lack of comprehensive estimation due to the technology limitations. Recent advances in Uncrewed Aerial Vehicle (UAV) coupled with high spatial resolution mapping and the Structure from Motion (SfM) Multiview Stereo algorithm, have made an indispensable tool for estimating wildfire fuel consumption across various fuel types. In this study, we implemented a one-year sequential approach for calculating fuel consumption and regrowth using UAV mapping before and after a prescribed canyon fire near Salinas, Northern California. Collaborating with the California Department of Forestry and Fire Protection, multi-source UAV mapping were conducted and processed the drone data into pre- and post-burn multispectral orthomosaic maps, Digital Surface Models (DSMs), fuel type classifications, and surface volume measurements. Using ground control points and tie points, we developed and trained linear regression models to address angular discrepancies and elevation displacements in the time series DSMs. These adjustments allowed for accurate comparisons of DSMs to assess vegetation changes over time around the fire event. DSMs, standardized geospatial technologies, GCPs, and ecological field data are used for precisely mapped fuel consumption and post-fire vegetation recovery at the individual vegetation level. Results show a positive correlation between fuel consumption height and fire temperature across various fuel types and a strong correlation between fuel consumption and recovery. This methodology demonstrates substantial potential for UAV-based cross-disciplinary analysis in fire ecology, meteorology, environmental science, and wildfire management.
Future Farm Now: A Scalable Geospatial Platform for Precision Agriculture
Future Farm Now (FFN) is a full-stack geospatial intelligence platform designed to empower agricultural research and decision-making across California and the Colorado River Basin. The project integrates remote sensing, soil science, and big data analytics to provide an exploratory interface for farmers, scientists, and policymakers. FFN combines satellite imagery from Landsat, Sentinel-2, and Planet Labs with comprehensive soil datasets to analyze and visualize key land and crop health indicators. At its core, FFN enables multi-dimensional exploration of farmland through three major capabilities: (1) Soil Property Analysis - generating spatially resolved statistics for properties such as bulk density, clay content, soil pH, organic matter, air entry pressure, water flow rate, pore distribution, porosity, sand content, silt content, water content (min & max) and water retention parameters across depth profiles; (2) Vegetation Monitoring - producing NDVI-based time series and spatial visualizations computed from processed spectral bands (B4, B5) to assess crop vigor over time; (3) Soil Sampling Optimization - identifying optimal sampling points (coordinates) based on data-driven variability in soil characteristics. The backend architecture leverages distributed spatial data processing using Apache Spark and BEAST to efficiently manage and query terabyte-scale raster and vector datasets. Custom indexing, data pipelines, and projection-aware transformations address the challenges of multi-resolution and multi-format geospatial data. The raw datasets are also stored and managed on UCR’s Horus server infrastructure, which also provides FTP access for researchers. FFN’s user-facing web application offers an intuitive, high-performance interface for real-time data exploration and visualization, translating complex geospatial analytics into actionable insights. By bridging advanced data management with user-centric design, Future Farm Now demonstrates how scalable, open geospatial systems can transform agricultural research and sustainability practices.