Stefanidis, AnthonyPulido, Daniel2018-10-222018-10-222017https://hdl.handle.net/1920/11268The rapid growth of Light Detection And Ranging (Lidar) technologies that collect, process, and disseminate 3D point clouds have allowed for increasingly accurate spatial modeling and analysis of the real world. Lidar sensors can generate massive 3D point clouds of a collection area that provide highly detailed spatial and radiometric information. However, a Lidar collection can be expensive and time consuming. Simultaneously, the growth of crowdsourced Web 2.0 data (e.g., Flickr, OpenStreetMap) have provided researchers with a wealth of freely available data sources that cover a variety of geographic areas. Crowdsourced data can be of varying quality and density. In addition, since it is typically not collected as part of a dedicated experiment but rather volunteered, when and where the data is collected is arbitrary. The integration of these two sources of geoinformation can provide researchers the ability to generate products and derive intelligence that mitigate their respective disadvantages and combine their advantages.109 pagesenCopyright 2017 Daniel PulidoRemote sensingGeographic information science and geodesyChange DetectionLIDARMatchingScaleSelf-SimilaritySpin-ImageSelf-Similar Spin Images for Point Cloud MatchingDissertation