E-PashuHaat Transportal

GPMS TRANSPORTAL APPLIED AI COURSES

AI

Course 35 - AI Solutions for Space Exploration

Duration: 36 Hours (6 Hours per week - 2 Hrs x 3)

Week 1 - AI in Satellite Data Processing and Analysis
Learning Outcome

Learn how AI is used to analyze satellite imagery and environmental data

1.1 AI-powered image analysis for earth observation and remote sensing.
1.2 Using deep learning for detecting and tracking objects in space.
1.3 AI for analyzing large datasets from satellite missions.

Practical Component

Build an AI model to process satellite imagery for environmental monitoring


Week 2 - AI in Spacecraft Navigation and Autonomous Control
Learning Outcome

Understand AI applications in autonomous spacecraft navigation and control systems

2.1 AI for autonomous spacecraft path planning and trajectory optimization.
2.2 Machine learning for real-time spacecraft diagnostics and control.
2.3 Using AI in space rover navigation and exploration.

Practical Component

Implement an AI solution for autonomous navigation in space.


Week 3 - AI for Space Mission Optimization and Resource Management
Learning Outcome

Learn how AI enhances space mission planning, resource allocation, and operations

3.1 AI for optimizing mission schedules and resource usage.
3.2 Using AI for predictive maintenance in spacecraft.
3.3 Machine learning models for space mission risk assessment.

Practical Component

Develop an AI model to optimize resources for a space mission.


Week 4 - AI for Astrophysics and Cosmic Exploration
Learning Outcome

Explore how AI helps in discovering new celestial bodies and analyzing space phenomena

4.1 AI for analyzing cosmic data and simulating space phenomena.
4.2 Neural networks in detecting exoplanets and star systems.
4.3 Using AI for space anomaly detection and exploration

Practical Component

Use AI to analyze astronomical data and identify potential exoplanets


Week 5 - AI for Space Safety and Collision Avoidance
Learning Outcome

Understand AI's role in enhancing space safety and avoiding collisions

5.1 AI for satellite collision detection and avoidance.
5.2 Machine learning for space debris tracking and management.
5.3 Using AI for real-time hazard detection in space operations.

Practical Component

Build an AI model for satellite collision prediction and avoidance.


Week 6 - Capstone Project and Assessment
Learning Outcome

Develop an AI solution for a space-related challenge

6.1 Implement an AI solution for satellite data processing, autonomous navigation, or space mission optimization.
6.2 Peer assessment and feedback.
6.3 Final project presentation and evaluation.

Practical Component

Present a space-focused AI project demonstrating its impact on space exploration and mission success.