Climate Effects
Remote sensing applications involve monitoring different aspects of the Earth’s system. As a result, data collected through remote sensing can be used effectively in climate change studies. As global change occurs on a daily basis, information from oceanography, plant physiology, and landscape ecology research forms the basis for climate change models. Applications such as plant canopy studies, soil analysis, hydrology studies (including snow and ice studies), general atmospheric studies, and light energy research can provide important data to these models.
The ability to accurately perform reflectance and radiometric measurements in the field is critical to all of these applications. The ASD FieldSpec® line of spectroradiometers offers a wide range of configuration options for gathering data above and below ice, snow and water bodies, as well as above and below vegetation canopies. The FieldSpec uses a flexible fiber optic cable, several probe attachments, and cosine-corrected irradiance receptors for measuring in tight spaces such as growth chambers and short-stature plant canopies. Bringing a level of device portability that only ASD can provide, the FieldSpec also helps you work in some of the most remote regions of the planet.
More information about the instrumentation used for climate change studies can be found by using the links below.
Infrared Spectra of Dust Coatings
For more information about the FieldSpec line of spectroradiometers used in remote sensing data collection in climate change studies select any of the links below.
Products
- FieldSpec® 3 Portable Spectroradiometer
- FieldSpec® 3 Hi-Res Portable Spectroradiometer
- FieldSpec® 3 Max Portable Spectroradiometer
- FieldSpec® HandHeld Portable Spectroradiometer
Articles
- CAR Measurements for Chesapeake Lighthouse and Aircraft Measurements for satellite (CLAMS) Experiment
- Chesapeake Lighthouse and Aircraft Measurements for Satellites "CLAMS" July 12-Aug 2, 2001
- Direct solar spectral irradiance and transmittance measurements from 350 to 2500 nm
- Multispectral and Hyperspectral Remote Sensing of Alpine Snow Properties
- Empirical Proof of the Empirical Line
- High Spectral Resolution Remote Sensing of Forest Canopy Lingnin, Nitrogen and Ecosystem Processes
- Spectroscopy of Humid Tropical Forests
- Mapping Methane Emissions Using Imaging Spectrometry
- Optimization of the Building Facade Based on the Spectral Measurement
- Estimation and Extrapolation of Soil Properties in the Siberian Tundra, using Field Spectroscopy
- Detection and discrimination of stress in bean (phaseolus vulgaris ‘tendergreen’.)
- Variation and Stability of Soil Reflectance Measurements with Different ASD Spectrometers Under Different Conditions
- Rapid Estimation of Brilliant Blue Concentrations in Soil by Diffusereflectance Spectroscopy
- A Comparison of Spectral Measurement Methods for Substratum and Benthic Features In Seagrass and Coral Reef Environments
- The NEON Imaging Spectrometer: Airborne Measurements of Vegetation Cover and Biochemistry for the Continental-scale NEON Observatory
- Energy in the 21st Century
- Radiometric Calibration Concept of Imaging Spectrometers for a Long-Term Ecological Remote Sensing Project
- High Performance Fore Optic Accessories and Tools for Reflectance and Radiometric Measurements with the ASD FieldSpec 3 Spectroradiometer
- Relationship Between Spectral Response and Changes of Water Level: La Purísima Dam, Guanajuato, Mexico
- Imaging Reflectance Spectroscopy in the National Ecological Observatory Network’s Airborne Observation Platform






