
Explore the fundamental gas turbine engine cycle, from compression and heating to turbine expansion, and identify how aircraft propulsion, thrust, and shaft power relate to turboprop, turbofan, and turbojet designs.
Explain the compressor, combustor, and turbine as the core gas turbine engine, and compare centrifugal and axial flow compressors, burners, turbine types, and heat exchangers with efficiency and size tradeoffs.
Explore how a gas turbine stores energy in air through the compressor, combustor, and turbine, transforming pressure, temperature, and enthalpy into useful shaft power.
Explore how fluid flow and energy transformations drive gas turbine operation, identify issues like surge, rotating stall, and flow separation, and understand friction and turbulence effects on efficiency.
Explore how ambient temperature and pressure govern gas turbine performance, and learn how compressor map, equivalent flow and speed, specific fuel consumption, and heat rate shape efficiency and specs.
Examine how gas turbine component design and materials withstand mechanical and thermal stresses, address failure modes (creep, fatigue, corrosion, erosion), and employ cooling and coating techniques.
Explore fundamental gas turbine maintenance objectives, inspection schedules, and preventative procedures to minimize compressor fouling, blade erosion, and foreign object damage, while ensuring safe operation through training and air filtration.
Design and implement a tailored gas turbine maintenance program, including borescope and crack inspections, compressor cleaning, lubrication management, and safety practices to optimize economical operation.
Learn how gas turbine condition monitoring uses manual and automatic data collection, baseline data, and trend analysis to detect faults and trigger warnings or shutdowns.
Explore gas turbine applications across aircraft propulsion, power generation, cogeneration and combined cycle, as well as marine and land uses, highlighting high power-to-weight ratio, rapid start-up, and versatile fuel options.
100% say "valuable information." 100% say "knowledgeable instructor." 100% say "helpful practice activities." Master the technology that powers modern aviation in this comprehensive 2.5-hour gas turbine engineering course.
Understand how jet engines work from fundamental principles through design, performance analysis, maintenance, and condition monitoring. Whether you're an aerospace engineering student, aviation professional, pilot, or mechanical engineer working with gas turbines, this course provides the technical foundation you need to understand and work with aircraft propulsion systems.
WHO THIS IS FOR:
Aerospace engineering students seeking practical knowledge of jet engine technology and propulsion systems
Pilots and aviation professionals wanting deeper understanding of the engines powering their aircraft
Mechanical and power engineers transitioning into aerospace or gas turbine applications
Aircraft maintenance technicians and engineers building theoretical knowledge behind their practical work
Aviation enthusiasts with technical backgrounds who want to understand how jet engines really work
Graduate engineers entering aerospace, defense, or aviation industries who need propulsion fundamentals
WHAT YOU'LL MASTER:
Gas Turbine Fundamentals:
- Understand the operating principles of gas turbine engines and thermodynamic cycles
- Learn compressor, combustor, and turbine component functions and interactions
- Analyze fluid flow dynamics through engine stages and their impact on performance
Performance & Design:
- Evaluate engine performance specifications and operating parameters
- Understand component design principles and manufacturing considerations
- Apply performance analysis to real aircraft engine applications
Maintenance & Reliability:
- Learn gas turbine maintenance practices and inspection techniques
- Implement condition monitoring strategies for engine health management
- Understand troubleshooting approaches and failure mode analysis
Industry Applications:
- Explore aircraft propulsion applications from commercial to military aviation
- Understand how gas turbines apply beyond aerospace in power generation
- Connect theoretical knowledge to real-world engineering practice
CURRICULUM HIGHLIGHTS:
Section 1: Introduction to Gas Turbine Technology
Section 2: Gas Turbine Engine Components (2 lectures)
Section 3: Fluid Flow in Gas Turbines
Section 4: Performance & Specifications
Section 5: Component Design and Manufacture
Section 6: Gas Turbine Maintenance (2 lectures)
Section 7: Condition Monitoring
Section 8: Applications
COMPLETE LEARNING PACKAGE:
- 2.5 hours of focused video covering gas turbine fundamentals through applications
- 10 comprehensive lectures organized across 8 technical modules
- Real-world examples from aircraft engine applications
- Suitable for engineering students through working professionals
- Certificate of completion for your professional development
WHY THIS COURSE WORKS:
Practical Focus: Every concept connects to real aircraft engine applications—not just textbook theory.
Complete Coverage: From thermodynamic principles through maintenance and condition monitoring in one structured course.
Career Relevant: The foundational knowledge aerospace employers expect from engineering candidates and professionals.
Enroll now and master the technology that powers modern aviation. Understand how jet engines work at a professional engineering level.