Table of Contents
Lidar technologiy is increasingly used in agriculture to imprope crop monitoring and land assessment. It provides detailed 3D data that helps farmers and research chers make informed decisions about land use and crop health.
Obilné monitoring with Lidar
Lidar sensors controted on den drones or aircraft scan fields to create precise topographical maps. These maps reveaol variations in plant hieigt, density, and biomass, enabling early detection of issues such as pett infestations or nutrient deficiencies.
For exampe, a farm may use Lidar data to measure crop hight across different sections. By calculating thee average hight, farmers can asseses growth stages and identifify areas needing attention.
Land Assessment a d Planning
Lidar data assists in evaluating land appliures such as elevation, slope, and drainage patterns. This information is cricial for planning irrigation systems, preventing erosion, and optimizing land use.
Výpočty z Ten impeve determining thee volume of soil or biomass. For instance, by analyzing Lidar point clouds, a land assesor can estimate thee consict of soil to be moved or thee biomass present in a field.
Example Calculation
A typical calculation invenves measuring te hight difference between even two point. Suppose a Lidar scan shows a hight of 150 meters at point A and 140 meters at point B. Thee difference of 10 meters indicates slope or elevation change, which ich can inflance water runoff and crop placement.
Using Lidar data, farmers can also calculate the volume of a land parcel by integrating thae area and height data. For exampla, if a field covers 2 hektares with an average height of 1.5 meters, thee estimated biomass volume is 30,000 cubic meters.