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SPACECRAFT PROPULSION
Are you passionate about advancing the future of space travel through cutting-edge propulsion technologies? Our Spacecraft Propulsion Program offers a comprehensive exploration of the principles and innovations that power spacecraft beyond Earth’s atmosphere. Guided by industry leaders, you’ll delve into the science of propulsion systems, including chemical, electric, and nuclear propulsion, while mastering key concepts such as thrust generation, specific impulse, and efficiency optimization.
This program combines theoretical foundations with hands-on experience in propulsion system design, performance analysis, and simulation tools. You'll tackle real-world challenges in spacecraft propulsion, from deep space missions to satellite maneuvering. Whether you aim to develop next-generation engines or optimize propulsion strategies for complex space missions, this program equips you with the expertise to drive humanity’s journey deeper into the cosmos.
Duration:
30 Days
Amount:
₹ 1499/-
OPPORTUNITIES
Collaborating on research projects.
• Internship opportunities.
• Technical Workshops.
• Technical Report making.
PREREQUISITES
• Laptop / Computer
• Internet Connection
PERKS
Access to online course materials
Hands-on experience
Certificate of completion
Dedicated instructor
Supportive community
WEEK WISE DISTRIBUTION
Day 1: Introduction to Spacecraft Propulsion
Overview of propulsion systems, history, and future trends.
Day 2: The Space Environment
Vacuum conditions, microgravity, and their effects on propulsion.
Day 3: Basics of Rocket Physics
Newton's Laws of Motion and their application to spacecraft.
Day 4: The Rocket Equation
Understanding ΔV, specific impulse, and mass ratios.
Day 5: Types of Propulsion Systems Overview
Chemical, electric, and advanced propulsion systems.
Day 6: Thrust, Efficiency, and Performance Metrics
How to measure and compare propulsion system performance.
Day 7: Introduction to Chemical Propulsion
Liquid vs. solid propulsion systems.
Day 8: Liquid Propellant Engines
Components, propellant types, and design considerations.
Day 9: Solid Rocket Motors
Structure, materials, and performance characteristics.
Day 10: Hybrid Propulsion Systems
Combining the best of liquid and solid propulsion.
Day 11: Combustion Dynamics and Thermodynamics
Principles of combustion in rocket engines.
Day 12: Propellant Selection and Optimization
Efficiency, safety, and performance factors.
Day 13: Electric Propulsion Basics
Ion thrusters, Hall-effect thrusters, and electrothermal systems.
Day 14: Plasma Propulsion Systems
Principles of plasma generation and its applications.
Day 15: Nuclear Propulsion
Nuclear thermal and nuclear electric propulsion concepts.
Day 16: Solar Sails and Photonic Propulsion
Harnessing sunlight for deep space missions.
Day 17: Advanced Propulsion Challenges
Heat management, power supply, and efficiency barriers.
Day 18: Comparative Analysis of Propulsion Systems
When and why to choose specific propulsion technologies.
Day 19: Mission Requirements and Propulsion Integration
Aligning propulsion systems with mission goals.
Day 20: Trajectory Analysis and Propulsion Impact
Orbital mechanics and ΔV budgeting.
Day 21: System Engineering for Propulsion
Integrating propulsion with spacecraft design.
Day 22: Failure Modes and Reliability in Propulsion Systems
Risk assessment, troubleshooting, and safety measures.
Day 23: Propulsion System Testing and Validation
Ground testing, vacuum chambers, and simulation techniques.
Day 24: Emerging Trends in Propulsion Research
Antimatter, fusion propulsion, and futuristic concepts.
Day 25: Propulsion for Reusable Launch Systems
Design principles of reusable engines (e.g., SpaceX Raptor, Blue Origin BE-4), reusability challenges, lifecycle considerations, and refurbishment techniques.
Day 26: Advanced Thermal Management in High-Power Propulsion
Heat dissipation strategies in nuclear and electric propulsion, regenerative cooling advancements, radiative heat transfer, and thermal control systems for long-duration missions.
Day 27: In-Situ Resource Utilization (ISRU) for Propellant Production
Designing propulsion systems compatible with ISRU-derived propellants (e.g., methane on Mars), electrolysis-based propellant production, and cryogenic storage solutions in extraterrestrial environments.
Day 28: Experimental Propulsion Systems and Emerging Research
Breakthrough propulsion technologies such as photon sails, E-sails (electric sails), EM drives, and quantum vacuum propulsion concepts—analyzing theoretical foundations and experimental status.
Day 29: Space Tugs and On-Orbit Servicing Propulsion Requirements
Design considerations for orbital transfer vehicles (OTVs), propulsion for satellite repositioning, debris removal, and on-orbit servicing with high ΔV efficiency requirements.
Day 30: Program Synthesis & Final Evaluation Test
Comprehensive review of propulsion systems, advanced Q&A with industry experts.
TRAINING FORMAT
Participants who successfully pass the final assessment will receive an official Certificate of Completion, recognizing their expertise in advanced spacecraft propulsion systems. This certification will:
Validate your knowledge of advanced propulsion technologies and system design.
Enhance your credentials for careers in aerospace industries, research institutions, and space agencies.
Serve as a testament to your skills in propulsion system modeling, design, and mission application.
SCHEDULE
Next Batch Starts : 13th February 2025
Timings : 7.00pm - 8.00pm IST.
Every Thursday, Friday & Saturday.
OTHER DETAILS
Training Period: 30 Days
Training Fees: INR 1499/- per applicant
Online Platform: Google Meet
Language: English
Session: Live
Limited Batch Size.
Any fraud payment/registrations made will be blacklisted in the system and no future career/training opportunities would be provided to the individual.
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