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GIS plays a important role in disease tracking, and public health planning. It helps identify disease clusters, analyze healthcare access, and plan for healthcare facilities and services.

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GIS allows for the integration of various types of geospatial data, such as maps, satellite imagery, GPS coordinates, and demographic information. This integration provides a comprehensive view of geographic phenomena and helps in making informed decisions.

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GIS is crucial for monitoring and managing environmental resources. It helps track changes in land use, assess the impact of climate change, and plan for disaster mitigation and response.

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୧ ׅ𖥔 ۫ Improved Planning and Management ⋄𓍯

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୧ ׅ𖥔 ۫ Improved Planning and Management ⋄𓍯

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GIS is used extensively in urban and regional planning, natural resource management, and infrastructure development. It helps organizations optimize resource allocation, plan for future growth, and manage assets efficiently.

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GIS is used in numerous industries, including urban planning, environmental science, public health, transportation, real estate, and more. Learning GIS can open up a wide range of career opportunities in these fields.

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GIS is crucial for emergency management and disaster response. Learning GIS can be invaluable if you work in public safety or disaster relief.

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GIS skills are highly transferable. Learning GIS software and spatial data analysis can improve your overall technology proficiency and make you a more versatile professional.

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For city planners, architects, and developers, GIS is essential for land-use planning, infrastructure development, and understanding how cities evolve.

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⌫ processor with power to run the software
⌫ sufficient memory storage
⌫ good quality high resolution colour graphic screen
⌫ data input & output devices

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allow user to import, store, manage, transform, analyse and output data.

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⌫ well designed implementation plans

⌫ unique operations and analysis

⌫ skill + experiences

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⌫ the most important component of a GIS
⌫ what types of data
⌫ where can be collected?
⌫ how it can be used?

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⌫ technical speciallist
⌫ common user
⌫ YOU

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selecting features based on their spatial relationships, such as finding all points within a specific area or finding the nearest neighbor to a given feature.

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performing geometric transformations like scaling, rotation, and translation on vector features.

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querying attribute data associated with vector features, such as finding all cities with a population greater than a certain value.

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combining multiple vector datasets to create new datasets, such as intersecting two polygon layers to identify areas of overlap.

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these maps provide a general overview of an area and include features like boundaries, cities, rivers, and major roads. They are often used for orientation and locating specific places.

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thematic maps focus on a particular theme or topic, such as population density, land use, or temperature distribution. they use colors, symbols, or patterns to represent the thematic information.

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topographic maps show the physical features of an area, including elevation contours, terrain, and landforms. they are commonly used for outdoor activities, urban planning, and natural resource management.