Tree Diameter at Breast Height (DBH) Estimation Using an iPad Pro LiDAR Scanner: A Case Study in Boreal Forests, Ontario, Canada

Guenther, Matthew; Heenkenda, Muditha K.; Morris, Dave; Leblon, Brigitte

doi:10.3390/f15010214

Cited by 1 publication

(1 citation statement)

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“…A considerable body of published articles focuses on analyzing the integration of LiDAR technology into iPads, particularly concerning forestry-related issues [28][29][30][31][32][33]. In reference [29], the authors focused on the determination of the tree diameter parameters and compared the cross-sections resulting from the individual point clouds as outputs from selected applications: 3D Scanner App, Polycam, and SiteScape (3D Scanner App-LAAN LABS-New York, NY, USA; Polycam-Polycam Inc.-New York, NY, USA; SiteScape-FARO-Lake Mary, FL, USA).…”

Section: Problem Overviewmentioning

confidence: 99%

Usage of a Conventional Device with LiDAR Implementation for Mesh Model Creation

Smrčková,

Chromčák,

Ižvoltová

et al. 2024

Buildings

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The trend of using conventional devices like mobile phones, tablets, and the other devices is gaining traction in improving customer service practices. This coincides with the growing popularity of building information modeling (BIM), which has led to increased exploration of various 3D object capture methods. Additionally, the technological boom has resulted in a surge of applications working with different 3D model formats including mesh models, point cloud, and TIN models. Among these, the usage of mesh models is experiencing particularly rapid growth. The main objective advantages of mesh models are their efficiency, scalability, flexibility, sense of detail, user-friendliness, and compatibility. The idea of this paper is to use a conventional device, specifically an iPad Pro equipped with light detection and ranging (LiDAR) technology, for creating mesh models. The different data capture methods employed by various applications will be compared to evaluate the final models´ precision. The accuracy of the 3D models generated by each application will be assessed by comparing the spatial coordinates of identical points distributed irregularly across the entire surface of the chosen object. Various available currently most-used applications were utilized in the process of data collection. In general, 3D representations of the object/area, etc., may be visualized, analyzed, and further processed in more formats such as TIN models, point cloud, or mesh models. Mesh models provide a visualization of the object mirroring the solid design of the real object, thus approximating reality in the closest way. This fact, along with automatized postprocessing after data acquisition, the ability to capture and visualize both convex and concave objects, and the possibility to use this type of 3D visualization for 3D printing, contribute to the decision to test and analyze mesh models. Consequently, the mesh models were created via the automatic post-processing, i.e., without external intervention. This fact leads to the problems of random coordinate systems being automatically pre-defined by every application. This research must deal with the resulting obstacles in order to provide a valid and credible comparative analysis. Various criteria may be applied to the mesh models’ comparisons, including objective qualitative and quantitative parameters and also the subjective ones. The idea of this research is not to analyze the data acquisition process in detail, but instead to assess the possibilities of the applications for the basic users.

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