GMFM350 Big data and machine learning in remote sensing

Credits (ECTS):10

Course responsible:Misganu Debella-Gilo

Campus / Online:Taught campus Ås

Teaching language:Engelsk, norsk

Course frequency:Every year

Nominal workload:Total structured teaching: 100 hours. Exercise work without direct supervision: 96 hours. Individual study: 50 hours.

Teaching and exam period:Autumn parallel

About this course

Lectures: Characteristics and processing chains of remote sensing data. Big data concepts and tools in remote sensing. Machine learning (ML) and deep learning (DL) methods and algorithms used in remote sensing. ML and DL in remote sensing image classification, segmentation and processing (correction and enhancement). ML and DL methods for analyzing higher dimensional remote sensing data such as laser scanning data, image timeseries, and hyperspectral images.

Exercises:1: Remote sensing big data computation: image collections, data cube, and image timeseries. 2: Satellite image classification and segmentation using Machine learning and deep learning methods. 3: Use of machine learning and deep learning in high dimensional remote sensing data. Python is the workhorse of this course and basic competence in Python is required.

Learning outcome

Knowledge: After completing the course, the students will have obtained substantial insightin machine learning and deep learning algorithms used in the processing and analysis of various types of remote sensing images particularly in image preprocessing, classification, segmentation, and change detection. Additionally, the students will have been acquainted with the understanding the concepts, characteristics, challenges and opportunities of remote sensing big data. The students will be able to connect real world remote sensing related problems with machine (deep) learning methods and big data tools.

Skills: The students will be able to manage and compute remote sensing big data with appropriate tools. They will also be able to solve selected remote sensing problems using machine learning and deep learning methods. They will be able to design, plan, train and deploy state-of-the-art machine learning and deep learning methods to solve selected remote sensing problems.

General Competence: They familiarize themselves with the working mechanisms of machine learning, a part of AI, in real world problems that remote sensing is expected to solve. They familiarize themselves with AI, that is widely expanding in the job market. The students will enhance their skills in collaborative works. They will also enhance their skills in report writing and scientific communication.

  • Learning activities
    Lectures, lab exercise and field exercise
  • Teaching support
    Teaching support will be given primarily in connection with that part of the structured teaching that is set aside for exercise guidance. It will also be possible to communicate directly with the course teacher by appointment during office hours.
  • Prerequisites
    GMFM100 or similar (e.g. MINA305), and DAT200 or similar
  • Recommended prerequisites

    GMFM200 or GMFM300,

    INF201 and INF202/INF203 or INF200 (discontinued)

  • Assessment method
    Portfolio assessment based on project assignments (accounts for 50% of the grade) and written exam (counts for 50% of the grade). Grading scale A-F.

  • Examiner scheme
    The external examiner collaborates with the internal examiner in designing examination tasks and guidelines. The external examiner verifies the internal examiner's assessment of a random selection of candidates periodically, as a part of the calibration process according to the faculty's grading guidelines.
  • Mandatory activity
    Obligatory Exercises
  • Teaching hours
    Lectures: 30 hours. Exercises: 60 hours. Excursion: 8 hours. Continuous assessment: 2 hours.
  • Reduction of credits
    None
  • Admission requirements
    Special requirements in science