The Comparison of Vector and Raster Data for The Calculation of Landscape Environment Using a Geographic Information System Approach

Eggy Giofandi; Khursatul Munibah; Kraugusteeliana Kraugusteeliana; Amira Novalinda; Cipta Sekarrini

doi:10.25299/itjrd.2023.10878

Authors

Eggy Giofandi IPB University
Khursatul Munibah IPB University
Kraugusteeliana Kraugusteeliana Universitas Pembangunan Nasional Veteran Jakarta
Amira Novalinda Institut Teknologi Bandung
Cipta Sekarrini Universitas Negeri Malang

DOI:

https://doi.org/10.25299/itjrd.2023.10878

Keywords:

Comparison, Multi-resolution, GIS Approach

Abstract

GIS-based measurements can combine vector and raster data to produce thematic data obtained from remote sensing data. The data used in this study uses data on land use in the city of Pekanbaru. After the data is obtained, the pixel calculation process is carried out using three methods: the cell center method, the maximum area, and the maximum combined area. This data describes information with multiple raster data resolutions and then interprets the level of distortion in the data. The research findings found that in the process of raster data from 8 different resolution levels for the 5x5 meter category, it is able to provide results that are closest to the area of vector data, where PL 1 code produces 404229 pixels, PL 2 code ranges from 225717 pixels, PL 3 code ranges from 160323 pixels, code PL 4 ranges from 92268 pixels, PL 5 code reaches 73384 pixels, PL 6 code reaches 57237 pixels, and PL 7 code reaches 48315 pixels. Meanwhile, of the 3 methods that were compared to determine distortion with vector data, the cell center approach was the closest to raster data by calculation through eight levels of raster resolution compared to the other two methods. In choosing the right pixel resolution for further use in mathematical modeling, it is necessary to pay attention to the level of resolution by generalizing the resolution of satellite imagery data so that the data can have the same resolution. The weakness of the three methods lies in increasing the resolution the greater it will make the data coarser. This research is expected to be used as a consideration in future research to add a more precise process and be able to produce less storage capacity.

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Author Biographies

Eggy Giofandi, IPB University

Master Program of Regional Planning Science

Khursatul Munibah, IPB University

Department of Soil and Land Resources

Kraugusteeliana Kraugusteeliana, Universitas Pembangunan Nasional Veteran Jakarta

Departement of Information Systems

Amira Novalinda, Institut Teknologi Bandung

Department of Mathematics Science

Cipta Sekarrini, Universitas Negeri Malang

Doctoral Program of Geography Education

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