Professional aerial photography Further photogrammetric processing of the obtained data is an optimal opportunity to obtain complete information about the condition of linear and area objects.

Aerial photography with a professional full-frame camera allows you to capture images of the highest quality.

Aerial photography and photogrammetric processing can provide the following results:

• Orthophotoplane with a final resolution of 1 cm per pixel for creating maps and plans at scales of 1:500, 1:1000, 1:2000, etc. Formats include geotiff, jpg, png, and GoogleEarth KML\KMZ.
• Dense point cloud It is a set of points on the terrain surface and objects. It is used to create 3D models and determine any geometric parameters of objects, such as distances, sizes, heights, etc. Formats: obj, ply, txt, las, e57, u3d, oc3, pd
• Digital surface model - It contains information about the topography of the earth's surface, taking into account the objects that are located on it, such as vegetation, buildings, etc. The formats are geotiff or kmz.
• Digital terrain model - It is a classified map of land surface elevations. It contains separate classes of vegetation and other land objects. It is available in geotiff or kmz formats.
• A 3D model. A textured georeferenced terrain or object model based on a dense point cloud.

Multispectral shooting - This is a method of obtaining images using multiple spectral bands, which allows for a deeper exploration of objects and surfaces than traditional visible light imaging.

It is one of the main tools of agriculture, as well as an effective way to increase crop yields, improve the quality of agricultural products, and reduce costs.

As a result of processing the received data, maps of vegetation indices (NDVI, PVI, WDVI, SAVI, LAI, etc.) are created, which can be used to assess the productivity of agricultural land, namely:

• plant condition
• moisture content
• nitrogen content
• Chlorophyll content
• biomass growth

Multispectral imaging, aerial photography, and video monitoring can be used together to inventory agricultural land, assess soil quality, monitor agricultural activities, evaluate plant health, identify negative factors in a timely manner, and predict crop yields.

Thermal imaging The use of unmanned aerial vehicles allows for surveillance in low visibility conditions and at night.

Thermal imaging can be used in many sectors: construction, mining, power generation, firefighting, search and rescue operations, and inspection of various types of objects.

Inspections using thermal imaging cameras allow you to detect hidden defects before they become visible and cause an emergency:

• Hidden insulation damage;
• Overheating (temperature anomalies) on equipment components;
• Signs of leaks (substances with high temperature differences).

The use of thermal imaging significantly increases production safety by detecting defects in a timely manner.

Visual monitoring Using an unmanned aerial vehicle is an excellent method for monitoring and inspecting objects from high altitudes and long distances.

Unmanned aerial vehicles equipped with a controlled gyro-stabilized camera with optical zoom and 360-degree infinite lens rotation are used for video monitoring, or unmanned aerial vehicles with three payloads (thermal imaging camera, video camera, and photo camera) installed simultaneously.

The video signal is transmitted in real time to the ground control station. Video broadcasting is indispensable in situations that require quick response, such as organizational and rescue activities, environmental monitoring, patrolling gas pipelines, searching for unauthorized activities, and eliminating the consequences of emergencies, etc.

Aerial laser scanning is the fastest, most accurate, and sometimes the only method for collecting data on real surfaces, including those in hard-to-reach areas and areas covered with vegetation. Airborne laser scanning provides data on the shape, location, and reflectivity of the objects being studied.

The result of air laser scanning is a 3D array of laser reflection points, classified by the "land/non-land" criterion, with a density of up to two hundred points per 1 square meter and an accuracy of 3-5 cm in plan and height. The data processing speed is less than 1 hour from the moment of scanning.

Airborne laser scanning technology is especially effective for new field development, engineering and geodetic surveys, creating a cartographic basis, surveying power lines, and determining the topography under dense ground vegetation.