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LiDAR for Forest Inventory

Measure canopy height, detect individual trees, and generate forest inventory deliverables from LiDAR point clouds

No credit card required • 50 hectares included

Forest inventory work depends on understanding both terrain and canopy structure. LiDAR makes that possible by capturing 3D forest data, from ground elevation below vegetation to treetop height above it.

This guide explains what LiDAR contributes to forest inventory, which outputs are most useful, and how Lidarvisor helps turn raw point clouds into forestry-ready products.

Why LiDAR Matters for Forest Inventory

Traditional field plots provide detailed measurements, but they only sample a small portion of the landscape. LiDAR adds wall-to-wall 3D structure, which helps forestry teams estimate canopy height, map crown extent, understand terrain under dense vegetation, and detect individual trees across larger areas.

That does not replace field data. It complements it.

LiDAR makes inventory planning and analysis more scalable by providing spatial context between plots and by supporting repeatable measurements across the whole forest block.

Lidarvisor - Forest Inventory

Canopy Height

Build canopy height models that reveal height variation across the stand

Individual Trees

Detect tree tops and crowns to estimate stocking and stand structure

Terrain Context

Generate DTMs that support slope, access, and operability analysis

Scalable Coverage

Analyze larger forest areas more consistently than plot-only approaches

Core Forest Inventory Outputs

Forest inventory projects often combine several LiDAR-derived outputs rather than relying on a single product. These are the ones that usually matter most

01

DTM

Bare-earth terrain for slope, access, drainage, and ground reference.

02

CHM

Canopy height model built from surface and terrain elevation differences.

03

Tree Tops

Local maxima or detected apex points used to estimate tree counts and spacing.

04

Tree Crowns

Polygon or segmented crown outputs that support stand structure analysis.

Canopy Height Models Support More Than Pretty Maps

Canopy height model showing forest corridor height variation for tree inventory analysis
CANOPY ANALYSIS

A CHM turns raw 3D points into a practical forestry surface that is easier to interpret and compare

Canopy height models help identify stand variability, dominant tree zones, edges, and unusual structure patterns. In inventory workflows, they often become the bridge between raw point cloud data and tree-level or stand-level measurements that foresters can actually use.

  • Highlight height variation across the stand
  • Support tree-top detection and crown segmentation
  • Provide clearer visuals for forestry interpretation and reporting

TREE DETECTION

Individual Tree Detection Adds Inventory Detail

Tree tops and crown polygons help move from stand surfaces to tree-level insight

Tree detection can support stocking estimates, crown competition review, habitat studies, or pre-harvest planning. Results depend on forest type, canopy closure, point density, and segmentation settings, which is why tree-level outputs should be interpreted as part of a broader inventory workflow rather than a single perfect answer.

  • Estimate tree locations and spacing across the stand
  • Visualize crown extent and canopy separation
  • Export vector tree products for GIS analysis

Field Plots vs LiDAR: Better Together

Lidarvisor - Tree Crowns

Field-Only Approach

Field plots capture valuable detail, but they only sample part of the forest. Extrapolating from sparse measurements can miss structure changes between plots or across difficult terrain.

LiDAR + Field Data

LiDAR adds full spatial coverage between plots, giving forestry teams better context for height, terrain, stand variability, and tree-level patterns while field measurements continue to anchor interpretation and calibration.

Frequently Asked Questions

How is LiDAR used in forest inventory?

LiDAR is used to map terrain, estimate canopy height, detect tree tops, delineate crowns, and provide spatial structure across forest stands. It complements plot measurements by extending analysis beyond sampled locations.

Can LiDAR estimate individual trees?

Yes, LiDAR can support tree-top detection and crown segmentation, though results depend on forest type, canopy closure, point density, and the specific segmentation workflow used.

What is a canopy height model?

A canopy height model, or CHM, represents vegetation height above ground. It is usually created by subtracting a terrain model from a surface model and is widely used in forestry analysis.

Does LiDAR replace field plots?

No. LiDAR adds wall-to-wall spatial context, but field plots still provide species, diameter, and calibration data that remote sensing alone does not fully replace.

Which Lidarvisor outputs are useful for forestry?

Useful outputs include classified point clouds, DTMs, DSMs, canopy height models, tree-top extraction, crown polygons, and vector products that can be used in GIS workflows.

Start Your Forest Inventory Workflow

Upload forest LiDAR data, generate canopy and terrain outputs, and start with 50 hectares plus 5 GB included on free signup.

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50 hectares free. No credit card. No software to install.