Beverly Hills LiDAR Mapping Project
Drone-based LiDAR mapping of a sloped site in Beverly Hills to generate a high-accuracy point cloud for terrain modeling and spatial analysis.
15+
Acres Mappped
2-5cm
Accuracy Achieved
LAS
Point Cloud
Oblique Mapping
3D Modeling
Beverly Hills 3D Terrain Model
This interactive 3D terrain model was generated using drone-based LiDAR data captured over a sloped site in Beverly Hills, California. The model provides a detailed digital representation of the terrain, allowing users to explore elevation changes, slope conditions, and surface features in three dimensions.
The dataset supports terrain modeling, spatial analysis, and visualization workflows while preserving true-to-scale measurements for accurate interpretation and planning.
Project Overview
AeroViews was engaged to perform drone-based LiDAR mapping of a sloped terrain site in Beverly Hills, California. The objective of the project was to generate an accurate, georeferenced point cloud that could be used for terrain modeling, measurement, and spatial analysis.
Using drone-mounted LiDAR and control provided by a base station and multiple reference targets, our team captured high-density spatial data across the hillside. The resulting dataset provides a true-to-scale digital representation of the terrain and surface features, supporting precise elevation and slope evaluation.
This project demonstrates how drone LiDAR can efficiently document complex terrain while delivering production-ready data for downstream analysis and modeling workflows.
Deliverables
Technical Services
Results & Impact
The high-resolution LiDAR data captured by AeroViews provided the client with an accurate digital representation of the sloped terrain in Beverly Hills. The registered point cloud and 3D terrain model enabled detailed visualization of elevation changes and surface geometry for use in terrain modeling and spatial analysis workflows.
This dataset allows analysts and planners to evaluate slope conditions, perform measurements, and work with a true-to-scale digital surface without repeated on-site data collection, improving both efficiency and planning confidence.







