Abstract
The development of a digital cartographic framework (DCF) is a fundamental prerequisite for the creation of information and assessment maps intended for territorial analysis and decision support. This paper focuses on the methodological aspects of forming a digital cartographic framework for the territory of East Kazakhstan Region using topographic maps and satellite remote sensing data. The study considers the full technological cycle of DCF development, including data collection, preprocessing, spatial analysis, vectorization, visualization, and integration of thematic layers.
Topographic maps at a scale of 1:200 000 were used as the primary cartographic basis, providing consistent spatial coverage of the study area. To update and refine thematic layers, satellite imagery from Sentinel-1 (SAR) and Sentinel-2 (multispectral) with a spatial resolution of 10 m was applied. The integration of optical and radar data made it possible to improve the accuracy of mapping natural and anthropogenic features, including hydrographic networks, vegetation cover, transport infrastructure, and settlement boundaries.
Georeferencing and vectorization of cartographic materials were performed in the ArcMap 10.8 GIS environment. As a result, an integrated digital cartographic framework was created, ensuring spatial consistency and compatibility of raster and vector data. The results demonstrate that the use of modern GIS and remote sensing technologies significantly enhances the accuracy, relevance, and analytical potential of information and assessment maps. The developed framework can be effectively applied for environmental monitoring, territorial planning, and sustainable management of natural resources.
01 Introduction
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02 References
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