شماره ركورد كنفرانس :
4350
عنوان مقاله :
Monitoring Native Plants in Large Scale Regions Using VIS-NIR, Hyperspectral and Thermal Imaging
پديدآورندگان :
Golzarian M. R. m.golzarian@um.ac.ir Department of Biosystems Engineering, Ferdowsi University of Mashhad, Mashhad, Iran. , Kazemi F. Department of Horticulture and Landscape, Ferdowsi University of Mashhad, Mashhad, Iran
كليدواژه :
Computer vision , Hyperspectral imaging , Image processing , Native plants , Plant monitoring.
عنوان كنفرانس :
همايش بين المللي نقش ذخاير ژنتيكي گياهي در احيا زمين ها و محيط زيست آسيب ديده از فعاليت هاي انساني و طبيعي
چكيده فارسي :
Monitoring growth, establishment, health status and distribution of plants in a specific vegetation region is a beneficial task in ecology, plant biology and plant growth analysis. Conventionally, researchers used quadrats for plant monitoring. The quadrat technique has a high demand in resources such as time and labor and the quality of data samples may be affected by human errors due to fatigue over the course of sampling or operator bias. Further, the conventional method is practical for only small scale use as it is. Identifying plants and detecting whether they suffer from biological and environmental stresses is an important step toward developing an automated system for monitoring plant establishment. However, the use of high-tech imaging systems makes it possible to monitor native plants in larger area and in real time. In this paper, the use of visible, hyperspectral and thermal imaging systems for monitoring environmental and biological stresses enforced on plants in small to large scales in arid and semi-arid environments will be discussed. The systems could be satellite-based, airborne or ground-based. The visible spectrum, 420-750 nm, can be used for detecting seasonal changes in plants; while, the near infrared spectral range, 740-2500 nm, and particularly the 950 nm spectral band, can be used for detecting water stress and some biological disease. The imaging in far infrared spectra with the wavelength of 8 µm and more have been proven to be useful for detecting early to mid-drought impacts on vegetation.