Case Study | ATP9100 Acceptance at Northwest University

ATP9100 – Acceptance Case

Recently, multiple Optosky ATP9100 field spectroradiometers successfully completed installation, commissioning, training, and acceptance at a university in Northwest China. This equipment delivery will further improve the university’s field spectral data acquisition system, providing stable and efficient instrument support for agricultural remote sensing, ecological environment monitoring, geological remote sensing surveys, and related course experiments.
 

01  Multiple Devices Delivered in Batch – Enhancing Spectral Observation Capabilities

Northwest China is a vast region with diverse surface types including farmland, grassland, desert, and mining areas. It is an important area for ecological environment, resource survey, and remote sensing application research. Field spectral data can reflect the reflection characteristics of different targets across various wavelength ranges, serving as an important foundation for remote sensing mechanism research, image interpretation, and model construction.
 

To meet the needs of multi‑group collaborative research, student group experiments, and batch field observations, the university introduced multiple Optosky ATP9100 field spectroradiometers. The multi‑device configuration not only improves field data collection efficiency but also supports synchronous or continuous observation of different sample areas, times, and targets – creating favorable conditions for the university to build a standardized and systematic field spectral database.

02  Standardized Acceptance – Comprehensive Verification of Equipment Performance

At the acceptance site, Optosky technical engineers conducted unpacking inspections, device connections, functional debugging, and performance verification for each ATP9100 unit according to project requirements. They carried out systematic testing covering instrument appearance, accessory completeness, spectral acquisition, data saving, and software operation.
 

During the on‑site demonstration, technicians selected typical ground targets for spectral measurement, completing operations such as device warm‑up, parameter setting, white reference calibration, target acquisition, and data export. All devices operated stably with smooth acquisition workflows, and the obtained spectral curves clearly reflected the spectral variation characteristics of the measured targets.

After on‑site inspection and comprehensive evaluation, all ATP9100 units met the project acceptance requirements and successfully passed acceptance.

03  ATP9100 – A Portable and Efficient Field Spectral Acquisition Tool

The ATP9100 field spectroradiometer mainly covers the visible to near‑infrared spectral range and can be used to collect spectral reflectance information from vegetation, soil, water bodies, rocks, building materials, and other surface targets. The device features strong portability, clear operation procedures, and high measurement efficiency, making it suitable for laboratory research, field surveys, and teaching experiments.

ATP9100 Appearance

In agricultural research, the ATP9100 can be used to obtain crop canopy, leaf, and soil spectra, providing a data foundation for studies on crop growth, chlorophyll, nutritional status, pests and diseases, and stress responses. In the ecological environment field, it can assist in vegetation classification, grassland degradation, desertification, and water environment monitoring. In geological research, it can be used to analyze spectral differences in rock, mineral, and soil samples, providing a reference for mineral identification and geological surveys.

Meanwhile, the data collected by the device can be combined with remote sensing imagery from UAVs and satellites to establish correspondences between ground‑measured spectra and remote sensing data, supporting spectral feature analysis, remote sensing model construction, and inversion result validation.

04  Technical Training Conducted in Parallel – Promoting Efficient Equipment Application

To help teachers and students quickly master the instrument’s usage, Optosky technical engineers conducted specialized training during the acceptance period. The training covered equipment composition, software operation, measurement distance and field‑of‑view settings, white reference calibration, typical target acquisition, spectral curve viewing, data export, and daily maintenance.

In response to factors that may affect data quality such as field lighting changes, measurement angles, environmental background, and sample status, the engineers provided detailed explanations with practical case studies and organized hands‑on practice for teachers and students. Through a combination of theoretical instruction and operational demonstration, participants became more familiar with the standardized workflow of the ATP9100, laying a solid foundation for subsequent teaching experiments and research projects.

05  Conclusion

The successful acceptance of multiple ATP9100 field spectroradiometers is another achievement of Optosky serving university research and practical teaching. In the future, Optosky will continue to leverage its technical advantages in spectral perception, data acquisition, and application services to provide universities and research institutions with more comprehensive instruments, technical training, and application support – helping field spectral research and remote sensing applications continue to expand.

Optosky ATP9100 – Making every field spectral measurement more convenient, and every set of research data more valuable.

For more information, please contact:

Email: optoskyphotonics@gmail.com

Web: www.optosky.net