Enrolment options

Objectives

At the end of this course the student will be capable of:

  • Manage vector and raster spatial data with Python

  • Plot spatial data with Matplotlib and perform filtering

  • Apply different tools of Scikit Learn for geospatial objects

  • Work with a Python class for crop recognition

  • Have a overview of Python coding to develop custom solutions


Content

The course is divided into 6 sessions. These are topics considered for each session:

Session 1: Vector spatial data exploration with Fiona and Python

  • Installation of Python, Fiona, Rasterio under a Conda environment.

  • Open a shapefile / vector data with Fiona

  • Get spatial object features

  • Explore spatial objects metadata and geometry

  • Spatial data representation with matplotlib

  • Analysis of the supported spatial vector data types

  • Creation of point, line and polygon shapefiles

  • Spatial data filtering by attributes

Session 2: Raster data management with Rasterio and Python

  • Read monoband and panchromatic Tiff images.

  • Explore raster dataset info and attributes.

  • Analyze spatial information.

  • Read raster band data.

  • Raster plotting options with Rasterio and Matplotlib.

  • Clip rasters with shapefile in Python.

  • Raster algebra example: NDVI vegetation index calculation.

Session 3: Tree Counting Classification with Scikit Image and Python

  • Explore single crop and multiple crop templates.

  • Perform match template for a single and multiple crop.

  • Analyze the match template array.

  • Define filter criteria and count crops.

  • Representation of identified crops over raster image.

Session 4: Geospatial crop counting of palm trees

  • Open raster and vector files with Python

  • Coupled representation of spatial data with Matplotlib and Rasterio

  • Template extraction for spatial point data

  • Auxiliary template generation for different angles

  • Match template for a group of templates

  • Representation of the interpreted points

  • Cluster analysis with Birch algorithm

  • Representation of clustered points

  • Export points as csv

Session 5: Crop line detection for corn crops

  • Import raster ad read raster bands

  • Perform Canny filter for edge detection

  • Identification of lines with Hough line transform

  • Convert results to geospatial data

  • Save resulting line to shapefile

  • Representation of interpreted crop rows

Session 6: Spatial Python class for crop recognition

  • Overview of the Python class coding

  • Define crop orthophoto and point plant location

  • Define parameter for the match template and raster band

  • Perform single match templates

  • Match template for all points

  • Cluster analysis and save results as shapefile

Final Exam


Methodology

Here are some details of each methodology:

  • Manuals and files for the exercises will be delivered.
  • The course will be developed by videos on private web platform.
  • There is online support for questions regarding the exercises developed in the course.
  • Digital certificate available at the end of the course.
  • Video of the classes will be available for 2 months.
  • To receive the digital certificate you must submit the exams after 1 month.

This course requires a payment for entry.

Cost: USD 220.00

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