Python-Powered Remote Sensing Data

Python-Powered Remote Sensing Data

Aamir Raza, Sheraz Maqbool, Muhammad Safdar, Hasnain Ali, Ikram Ullah, Ali Akbar, Avery Williams, Mohammed Saleh Al Ansari, Mubashir Ahmed, Awn Abbas, Abdul Malik
Copyright: © 2024 |Pages: 32
DOI: 10.4018/979-8-3693-1754-9.ch003
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Abstract

Remote sensing is a crucial technique in environmental and spatial investigations, and Python is a popular programming language for analyzing this data. This chapter provides a comprehensive guide to using Python for remote sensing data analysis, covering various data types, attributes, and practical implementations. It introduces Python and its data processing libraries, discusses preprocessing operations like data conversion and import, geometric rectification, and radiometric correction, and covers image enhancement techniques like edge detection, contrast enhancement, and filtering. It also covers image analysis techniques like band mathematics, indices, classification, and segmentation. The chapter also covers exporting data and generating visualization maps and charts. Python's application in remote sensing data analysis is illustrated through case studies.
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Introduction To Remote Sensing Data

Remote Sensing

Remote sensing is the practice of collecting data about an object or occurrence without physically interacting with it, primarily used to gather knowledge about Earth and celestial bodies, particularly planets (Campbell and Wynne, 2011). This data is acquired through sensors installed on aircraft or satellites, which capture electromagnetic radiation from the Earth's surface. The data is then transformed into visual representations or other forms of data outputs, which can be used to identify and delineate Earth's terrain characteristics. Remote sensing data has diverse applications, including mapping different land cover types, identifying pests and diseases, assessing crop yields, and tracking agricultural progress Mirzakarimova (2023). Figure 1 shows how different land cover types, such as forests, grasslands, urban areas, and water bodies, may be mapped using remote sensing data. It has also proven effective in the surveillance of natural disasters like earthquakes, wildfires, and floods, as well as monitoring deforestation, water quality, and air quality.

Figure 1.

A Satellite Image Showing Different Land Cover Type

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Remote sensing methodologies have revolutionized Earth's mapping, enabling the exploration of unexplored geological features and resources. These methods have also improved weather forecasting accuracy. Remote sensing data includes aerial photography, satellite images, LiDAR (Light Detection and Ranging) data, thermal infrared imagery, and hyperspectral data. These data sources provide valuable insights into Earth's surface, enabling the identification of previously unexplored geological features. Other methods used for data analysis include thermal imaging, radar, sonar, and aerial photography. The use of remote sensing technology has significantly enhanced the accuracy of weather forecasting and the overall understanding of Earth's environment.

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