In modern agriculture and industrial facility operation, accurate data is the basis of decision-making. FigSpec hyperspectral and multispectral UAV systems (FS60-CL, FS6B, FS-50L) and their software ecosystem represent a breakthrough in aerial remote sensing. With these systems, invisible spectral data becomes measurable.
Hyperspectral remote sensing is an advanced imaging technology that divides light into hundreds or even thousands of narrow, continuous spectral bands, for example between 400-2500 nm.
Unlike traditional RGB or multispectral drone cameras, a hyperspectral camera records a full spectral curve for every pixel. This enables contactless aerial identification of chemical and physical properties such as plant chlorophyll content, soil moisture or water quality with laboratory-level precision.
In addition to aerial remote sensing projects, we also support the selection of laboratory, industrial and fixed-installation hyperspectral systems.
A new-generation drone-mounted hyperspectral camera series for DJI M400 platforms, built for precision agriculture, water quality, forestry and environmental monitoring.
An airborne system combining VISNIR and SWIR sensing across 400-2500 nm for complex soil, crop, mineral and environmental analyses.
A 30-180 channel, 2K multispectral camera family for crop monitoring, yield estimation, target identification, water quality and ecological surveys.
4-9 channel multispectral systems with RGB and long-wave infrared options for flexible agricultural and environmental remote sensing configurations.
An automated drone hangar combining a DJI M400 platform and FS60C hyperspectral payload for recurring, remote or unmanned monitoring tasks.
A system family for Solar-Induced Chlorophyll Fluorescence measurements, supporting more accurate interpretation of plant photosynthetic activity and stress.
High-detail spectral imaging for research, industrial and agricultural use cases where spectral differences must be interpreted together with visual imagery.
Portable spectrometers for 300-1100, 300-1700 or 300-2500 nm ranges, designed for vegetation, water quality and ecosystem monitoring.
A hyperspectral camera combined with a rotatable PTZ unit for rivers, lakes, forestry, agriculture and base-monitoring applications.
A hyperspectral upgrade for biological, fluorescent, stereo or metallographic microscopes, enabling spectral analysis of cells, algae and micro-samples.
A portable hyperspectral camera platform with 400-1700 nm configurations, touchscreen operation and multi-format data management.
The hardware integrates seamlessly with the most common industrial drone platforms without compromise.
Image merging and calibration
Automatic stitching, mosaicking and calibration of flight strips with reflectance and area correction. Raw .spe, .hdr and .scp data can quickly become usable maps and analysis layers.
Analysis and image classification
Advanced evaluation software for vegetation indexes, NDVI analysis, water-quality models, classification and spectral comparison. The system fits field, UAV and laboratory workflows.
Real-time preview and remote supervision
In UAV configuration, sampling location, hyperspectral imagery and spectral curves can be monitored from the ground station. Automated stations can support recurring water-quality, vegetation and environmental monitoring tasks.
Whether testing the latest soil conditioners, surveying large livestock sites or running environmental monitoring, hyperspectral technology is becoming an essential tool for the future.
Our expert team delivers more than hardware: we help configure a drone camera system tailored to your industry-specific GEO/GIS needs and support operator training.
Yes. FigSpec FS60-CL, FS-50L and FS-500L UAV systems are designed for DJI M400 platforms and X-Port / SkyPort integration. They support ground-station preview, real-time data control and single-operator field use.
Hyperspectral technology captures spectral changes that are invisible to the human eye. After treatments such as liquid foliar fertilization, the camera system and FigSpec Studio 2.0 make chlorophyll increase and reduced plant stress measurable with centimeter-level precision.
For large livestock sites, maintaining biosecurity is critical. Drone-based hyperspectral surveys can quickly and contactlessly detect contamination in site water bodies, such as algal growth or eutrophication, and identify environmental risks around the site without breaching strict biosecurity zones.
No. Although the captured data is highly complex, the FigSpec Merge 2.0 and Studio 2.0 software ecosystem is designed to be user-friendly. Built-in algorithms can generate heatmaps, calculate vegetation indexes such as NDVI and perform image classification without programming background.
