 
    
    
ć 
ç  
 
            
         
          validated, reproducible
3D measurements     uncertainty-aware    
     
Keywords:          
        
 
        

    
     
   

     
 Topology-Based Individual Tree Mapping from LiDAR Point Clouds
     
    
     
     
     
      
    
   
  
      
     
            
    
       
        
        
      
 
    
        
   
 
e Jacob K. Goldhaber Travel Grant
  
NSF travel grant

   
  Xin Xu      ImplicitTerrainV2: Wavelet-Guided Spatially Adaptive
Neural Terrain Representation         
           

  Xin Xu      Rethinking Amortized Neural Representations for High-
Resolution Terrain Elevation Data        
    
    Xin Xu      A Topology-Guided GeoAI Agentic Frame-
work for Urban Flood Screening         
             
     
   Xin Xu            
    A Probabilistic Optimization Framework for Terrestrial and UAV-Borne
Laser Scanning Forest Point Cloud Registration       
      
       Xin Xu       TLNet: A Deep
Learning Framework for Tree Detection in Forest Point Clouds Using Multi-Layered Forest Structure
        
     Xin Xu       Graph-Topological Deep
Detector for Cross-Platform Forest Point Clouds        
           
        Xin Xu        
             Exploring Neglected Places
Enabling Conservation Crime rough Place Network Investigations     
 
Xin Xu         From Point Clouds to Forest Analyt-
ics: libTTS, a Practical Toolkit for the Geoindustry       
             
  Xin Xu            
   Automated registration of forest point clouds from terrestrial and drone platforms
using structural features ISPRS Journal of Photogrammetry and Remote Sensing 
    Xin Xu        Individual tree branch
and leaf metrics extraction in dense plantation scenario through the fusion of drone and terrestrial
LiDAR Computers and Electronics in Agriculture 
  Xin Xu     ImplicitTerrain: a Continuous Surface Model for Terrain Data
Analysis.            
           
 
Xin Xu           Topology-based individual
tree segmentation for automated processing of terrestrial laser scanning point clouds. International
Journal of Applied Earth Observation and Geoinformation   
Xin Xu       A topology-based approach to individual tree segmen-
tation from airborne LiDAR data. Geoinformatica 
             
           
            
           
 Xin Xu       A Synthesized Field Survey Database
of Vegetation and Active-Layer Properties for the Alaskan Tundra (1972–2020). Earth System Science
Data      
Xin Xu  An Unsupervised Building Footprints Delineation Approach for Large-Scale LiDAR Point
Clouds            
       (Second Place, 11th ACM SIGSPATIAL
GIS Cup)
Xin Xu       A Persistence-Based Approach for Individual Tree Map-
ping            
      (Best Short Paper Runner-Up)
 
Xin Xu            libTTS: A Modular
Topological Data Analysis Pipeline for Forest Point Cloud Analysis with a Pathway to Deep Learning
Integration        
      Xin Xu        A Deep Learning
Framework for Tree Detection in Forest Point Clouds Using Multi-Layered Forest Structure 
      
Xin Xu             A Spatial
Paern-Based Automated Tree Matching Method Using Only Tree Locations for Validating Detected
Trees        
Xin Xu       A Novel Generic Automated Tree Localization Method For
Dierent Types of Forest LiDAR Point Clouds      
 
    Xin Xu        Stem-based registration
of drone and terrestrial LiDAR point clouds in Japanese plantation forests  
     
      Xin Xu      Estimating Rainfall
Interception by Individual Canopy Structure Analysis with Fusion LiDAR data in Plantation Forest
       
Xin Xu       An Novel Terrain Detection Method For Automated Pro-
cessing of Laser Scanning Point Clouds       

Xin Xu       Individual Tree Extraction from Terrestrial Lidar Point
Clouds Based on Topological Tools       

Xin Xu       Individual Tree Mapping from LiDAR point clouds based
on topological tools        
Xin Xu       Individual Tree Mapping from LiDAR point clouds based
on topological tools           
  
Xin Xu       Individual Tree Mapping from LiDAR point clouds based
on topological tools         
  
  
Topology-based Tree Segmentation (TTS). UMD, College Park.
•    topology-based tree segmentation (TTS) methods  
            
             
     
•        adaptable to diverse forest datasets 
user-friendly
•      C++ and Python      open-source
release  
  
Unsupervised Building Footprints Delineation. UMD, College Park.
•   unsupervised approa       
    
•   simplies the delineation process      superior
mapping accuracy     
•    second place      
 
ImplicitTerrain: a Continuous Surface Model for Terrain Topological Analysis UMD 
•  ImplicitTerrain    implicit neural representations (INRs) 
     
•        topological and topographical fea-
ture extraction   
•            
           
 CVPR project webpage
Deep Learning-Based Supraglacial Lake Detection. UMD, College Park. 
•  supervised deep learning approa       
             
            
    
Optimal EV Charging Station Network Deployment. UMD, College Park.
•   optimization model          
   
•        trac patterns, key destinations, elec-
tric grid capacity,  socio-economic data
•     Gurobi         
  
Geo-Spark for 3D Urban Air Pollution Modeling. UMD, College Park. 
•  distributed computing framework  Apae Spark    
       
•      large-scale air pollution simulations  
           
 
Interactive GIS Map Comparison. UMD, College Park.
•   intuitive web application         
   eortless side-by-side comparison    
    
Survey Helper: a Geospatial Data Collection App. UMD, College Park.
•          
     Custom form creation Google Maps integration  CSV data
export
Touless Gesture Control for Interactive Maps. UMD, College Park.
•  touless interactive system       
          
 
Instructor       
         
        
        
          
         
Mapping 3D forest structures using Lidar Remote Sensing
       
      
      
      
           
Forest point cloud data processing
             
      
          
         
          
 
Programming:      
Data/AI and Geospatial:       
Computing and Databases:   