Cartography Training/Go natural

Agriculture is evolving — and GIS (Geographic Information Systems) is leading the revolution. No longer just about ploughs and tractors, modern farming relies on data-driven decisions to boost productivity and protect the environment. Here's how GIS is transforming agriculture every day. A farmer uses satellite maps and sensors to apply fertilizer only where needed, saving money and minimizing runoff 1. Precision Farming GIS enables farmers to monitor variability across their fields. By mapping soil types, crop conditions, and nutrient levels, they apply the right treatment in the right place — reducing waste and increasing yields. 2. Crop Health Monitoring GIS tools use satellite imagery and NDVI (Normalized Difference Vegetation Index) maps to assess plant health. This helps farmers detect disease, pest infestation, or drought stress early — before it spreads. 3. Soil Mapping & Analysis Detailed GIS-based soil maps inform farmers about moisture levels, composition, and pH acr...

  10 Everyday Uses of Maps You Didn’t Learn in School Maps are no longer confined to the pages of geography textbooks. In today’s digital world, maps and geospatial technology are quietly powering many everyday activities—from ordering food to sharing photos on social media. Whether you're a GIS student, a tech educator, or simply curious about how mapping tools work in the background, this post reveals 10 real-life uses of maps you probably didn’t learn in school. 1. Finding Nearby Services with Digital Maps From finding the closest coffee shop to locating a pharmacy at midnight, location-based apps like Google Maps and Waze are practical tools powered by GIS. Related Post: What Is Location Intelligence in GIS? 2. Tracking Fitness with GPS Mapping Apps Apps like Strava, Fitbit, and Nike Run Club use spatial data to help users map routes, monitor progress, and analyze fitness trends. External Link: Strava Global Heatmap 3. Route Optimization for Deliveries ...

Mapping for effective crop production involves using spatial data and Geographic Information System (GIS) tools to plan, monitor, and optimize agricultural activities. Here’s a simplified guide to get you started:  1. Identify Objectives Determine your goals. What do you want to achieve? Examples include: - Soil suitability assessment - Irrigation planning - Yield prediction 2. Collect Relevant Data Gather the following data types: - Soil maps (including pH, texture, and fertility) - Rainfall and climate data - Topographical information (elevation and slope) - Land use and land cover data - Satellite imagery or drone data  3. Use GIS Tools for Analysis Utilize GIS software such as QGIS or ArcGIS, which are powerful and, in the case of QGIS, free for agricultural mapping. Follow these steps: - Create separate layers for each dataset. - Perform raster analysis for slope and rainfall zones. - Conduct overlay analysis to combine various data for suitability modelling. 4. modelling...

. Introduction Define social inequality in urban contexts (e.g., income, education, housing, health). Explain why mapping these inequalities is important for policy and planning.  Objectives: To spatially analyze disparities in urban services and living conditions. To visually communicate inequality through GIS-based cartographic tools.  Literature Review Review works on spatial inequality, urban geography, and GIS applications. A map Demographic background Socio-economic context Satellite imagery  . Methodology a. Data Collection Spatial Data: Administrative boundaries (wards, districts, etc.) Road networks, public transport, land use Socioeconomic Data: Population density Income levels Unemployment rates Educational attainment Housing quality or informal settlements Crime rates Health facility locations Sources: National census bureaus City development plans UN-Habitat, World Bank, OpenStreetMap Household surveys use (ODK, Kobocollect) Local NGOs or government departmen...

Learn how Geographic Information Systems (GIS) can be used to map, monitor, and analyze mosquito populations and breeding sites for public health and research purposes. 1. Introduction to Mosquito Tracking with GIS Why track mosquitoes? Disease control (malaria, dengue, Zika, etc.) Environmental management Public health decision-making How GIS helps: Mapping mosquito habitats and breeding sites Analyzing environmental factors (rainfall, temperature, land use) Visualizing spatial patterns and risks 2. Data Requirements Base layers: Administrative boundaries Land use/land cover Water bodies Elevation/DEM (optional) Mosquito data: Location of mosquito traps or breeding sites (GPS coordinates) Mosquito species Larval counts or adult mosquito density Date and time of capture Environmental data: Rainfall, temperature (can be from satellite sources or weather stations) 3. Tools You’ll Need GIS Software: QGIS (Free and Open Source) ArcGIS (Paid, with more features) GPS device or mobile app for...

Maps are a powerful tool to introduce children to geography, spatial thinking, and storytelling. Whether you're a parent, teacher, or storyteller, creating a map designed specifically for children can be both fun and educational. Here’s a simple guide on how to create an engaging, age-appropriate map for children. 1. Know Your Purpose Start by defining the goal of your map. Is it for learning directions? Exploring a story? Planning an imaginary adventure? A map designed for a geography lesson will look different from one meant to accompany a storybook or a treasure hunt. 2. Choose a Simple Layout Children benefit from clarity. Use a small area for the map—like a neighborhood, a park, or an island. Stick to a bird's-eye view and avoid unnecessary complexity. Use large, easy-to-read labels and symbols. 3. Use Color and Fun Symbols Bright colors and playful icons capture children's attention. Replace complex map symbols with familiar shapes: A house icon for homes Trees for fo...

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