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Scholarships & exams

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Pune, Maharashtra, India

Duration

4 Years

Satellite Image Processing

Indian Institute Of Remote Sensing
Duration
4 Years
Satellite Image Processing UG OFFLINE

Duration

4 Years

Satellite Image Processing

Indian Institute Of Remote Sensing
Duration
Apply

Fees

₹2,50,000

Placement

92.0%

Avg Package

₹4,50,000

Highest Package

₹8,00,000

OverviewAdmissionsCurriculumFeesPlacements
4 Years
Satellite Image Processing
UG
OFFLINE

Fees

₹2,50,000

Placement

92.0%

Avg Package

₹4,50,000

Highest Package

₹8,00,000

Seats

120

Students

1,200

ApplyCollege

Seats

120

Students

1,200

Curriculum

Curriculum Overview

The Satellite Image Processing program at Indian Institute Of Remote Sensing is structured over eight semesters, each carefully designed to build upon previous knowledge and introduce increasingly complex concepts. The curriculum combines foundational science courses, core engineering principles, departmental electives, and specialized project work to ensure a well-rounded education.

First Year Courses

Course CodeCourse TitleCredit Structure (L-T-P-C)Prerequisites
PHYS101Physics of Electromagnetic Waves3-1-0-4None
MATH101Mathematics for Engineers4-0-0-4None
CS101Introduction to Programming2-0-2-3None
ENGR101Digital Electronics3-1-0-4MATH101
CHEM101Chemistry for Engineers3-1-0-4None
PHYS102Introduction to Optics and Lasers3-1-0-4PHYS101

Second Year Courses

Course CodeCourse TitleCredit Structure (L-T-P-C)Prerequisites
MATH201Probability and Statistics3-0-0-3MATH101
CS201Data Structures and Algorithms3-0-2-5CS101
ENGR201Signal Processing Fundamentals3-1-0-4MATH101, CS101
PHYS201Optical Instruments and Systems3-1-0-4PHYS101
GEOS201Introduction to Remote Sensing3-1-0-4MATH101, PHYS101
ENGR202Image Processing Fundamentals3-1-0-4CS101, ENGR201
MATH202Linear Algebra and Differential Equations4-0-0-4MATH101

Third Year Courses

Course CodeCourse TitleCredit Structure (L-T-P-C)Prerequisites
ENGR301Remote Sensing Sensors and Platforms3-1-0-4GEOS201, ENGR201
CS301Machine Learning for Remote Sensing Applications3-1-0-4CS201, MATH201
GEOS301Atmospheric Effects in Satellite Data3-1-0-4GEOS201
ENGR302Image Enhancement Techniques3-1-0-4ENGR202
CS302Geographic Information Systems (GIS)3-1-0-4GEOS201, CS201
MATH301Numerical Methods for Engineers3-0-0-3MATH101, MATH202

Fourth Year Courses

Course CodeCourse TitleCredit Structure (L-T-P-C)Prerequisites
ENGR401Advanced SAR Data Analysis3-1-0-4ENGR301, ENGR201
CS401Deep Learning for Remote Sensing3-1-0-4CS301
GEOS401Hyperspectral Imaging and Data Fusion3-1-0-4ENGR301, CS302
ENGR402Real-Time Data Fusion Techniques3-1-0-4ENGR302
CS402Data Visualization for Geospatial Applications3-1-0-4CS301, CS302
ENGR403Remote Sensing in Urban Environments3-1-0-4GEOS201, CS302

Departmental Electives (Year 3 & 4)

Advanced departmental electives offer students opportunities to specialize in areas of interest. These courses are designed to deepen understanding and prepare students for research or industry roles.

  • ENGR501 - Hyperspectral Imaging: Focuses on the acquisition, processing, and interpretation of hyperspectral data. Students learn about spectral signatures, classification techniques, and applications in mineral exploration, agriculture, and environmental monitoring.
  • CS501 - AI for Remote Sensing: Explores how artificial intelligence can be applied to satellite image analysis, including convolutional neural networks (CNNs), recurrent neural networks (RNNs), and transformer-based models. Students gain hands-on experience with tools like TensorFlow and PyTorch.
  • GEOS501 - Coastal Monitoring: Covers the use of satellite imagery for tracking coastal erosion, sea-level rise, and pollution events. The course includes modules on wave modeling, sediment transport, and ecosystem impacts.
  • ENGR502 - Disaster Risk Assessment: Examines how satellite data can be used to assess risks associated with natural disasters such as floods, earthquakes, and wildfires. Students learn about early warning systems and emergency response planning.
  • CS502 - Cloud Computing for Remote Sensing: Introduces students to cloud-based platforms like AWS, Google Earth Engine, and Microsoft Azure for handling large satellite datasets. Topics include data storage, processing, and visualization techniques.
  • GEOS502 - Climate Change Monitoring: Focuses on using satellite data to study climate trends and impacts. Students explore topics such as carbon dioxide levels, temperature variations, and sea ice extent.
  • ENGR503 - SAR Signal Processing: Provides an in-depth look at synthetic aperture radar (SAR) signal processing techniques, including interferometry, polarimetry, and speckle reduction. Students work with real SAR data from various missions.
  • CS503 - Spatial Data Mining: Teaches students how to extract meaningful patterns from large spatial datasets using data mining algorithms. Applications include urban planning, environmental monitoring, and public health.

Project-Based Learning Framework

The program emphasizes project-based learning as a cornerstone of the educational experience. Students are required to complete both mandatory mini-projects and a final-year thesis or capstone project.

Mini-projects begin in the third year, where students work in small teams on real-world problems related to satellite image processing. These projects are guided by faculty mentors and often involve collaboration with industry partners or government agencies. The scope of these projects ranges from developing classification algorithms for land cover mapping to creating interactive dashboards for flood monitoring.

The final-year thesis project is a significant undertaking that allows students to explore an area of personal interest in depth. Students select their topics in consultation with faculty mentors, and the project typically involves designing, implementing, and evaluating a novel solution or approach to a relevant problem in satellite image processing. The process includes literature review, methodology development, data collection and analysis, and presentation of findings.

Evaluation criteria for projects are designed to assess both technical competence and communication skills. Students must submit detailed reports, present their work to faculty panels, and defend their findings orally. This rigorous evaluation ensures that students develop not only strong analytical abilities but also the ability to convey complex ideas clearly and effectively.