4 Weeks
Structured learning track with weekly technical progression.
AIRCRAFT PROPULSION PROGRAM
Decode the engine behind flight.
A flagship Dwello program focused on gas turbine engines, turbojet architecture, component flow, performance logic, and guided aircraft engine design.
4 Weeks
Guided Track
₹1499
Program Fee
Engine Design
Final Output
ENGINE FLOW MAP
Air becomes thrust through a chain of engineered transformations.
01
Intake
02
Compressor
03
Combustor
04
Turbine
05
Nozzle
Focus
Components · Cycles · Performance
Outcome
Aircraft engine design
Guided Online
Concept sessions, tasks, assignments, and design guidance.
Beginner to Applied
Starts from engine basics and moves toward system-level design thinking.
Engine Design
Final submission focused on designing an aircraft propulsion engine concept.
ENGINE FLOW LEARNING
Learn the engine as a flow system, not as isolated theory.
The program follows the path of air through the engine and explains what each component does to pressure, temperature, velocity, energy, and thrust.
Air Intake
How incoming air is captured, slowed, and delivered to the compressor.
Compression
How compressor stages raise pressure and prepare air for combustion.
Combustion
How fuel-air energy addition increases temperature and gas energy.
Turbine Work
How turbine stages extract energy to drive the compressor system.
Nozzle & Thrust
How exhaust acceleration produces useful propulsive force.
WHAT YOU WILL LEARN
From engine anatomy to performance interpretation.
Instead of memorizing component names, students learn why each part exists, how it affects the cycle, and how the complete engine behaves.
Turbojet and gas turbine layout
Understand engine types, station sequence, airflow path, and the role of each major assembly.
Brayton cycle and energy transfer
Connect pressure ratio, temperature rise, turbine work, compressor work, and exhaust energy.
Thrust, fuel flow, and SFC
Interpret engine performance using thrust, specific fuel consumption, efficiency, and operating conditions.
Fuel, lubrication, starting, and controls
Learn how supporting systems keep aircraft engines functional, safe, and reliable.
DESIGN INTENSITY
The final outcome is always an engine design. The depth changes with duration.
Every Aircraft Propulsion track leads toward designing an aircraft propulsion engine. Longer durations allow deeper calculations, stronger documentation, component sizing, CAD direction, and performance-level detailing.
Conceptual Engine Design
Students define engine type, airflow path, component roles, basic requirements, and a structured concept-level propulsion design.
Cycle-Based Engine Design
Students add cycle logic, pressure-temperature reasoning, performance parameters, station mapping, and stronger design justification.
Detailed Propulsion Design
Students move toward component sizing logic, performance interpretation, system integration, design trade-offs, and detailed technical documentation.
4-WEEK PROGRAM STRUCTURE
A mission-style progression from fundamentals to engine design.
Each week adds one engineering layer: component understanding, cycle logic, performance interpretation, and final engine design documentation.
Engine Fundamentals
Engine types, thrust generation, major components, station sequence, airflow path, and propulsion terminology.
Cycle & Components
Brayton cycle, compressor pressure rise, combustor heat addition, turbine work extraction, and nozzle acceleration.
Performance Interpretation
Thrust, fuel flow, SFC, temperature limits, pressure ratio, efficiency, and operating condition effects.
Engine Design Submission
Students connect component understanding, cycle logic, and performance reasoning into a guided aircraft propulsion engine design output.
FINAL PROGRAM OUTPUT
Every student works toward designing an engine.
The final outcome of the Aircraft Propulsion program is an aircraft engine design output. Students do not stop at definitions or component study — they use the learning to build a structured propulsion engine concept.
As the program duration increases, the intensity of the design increases. A shorter track focuses on conceptual engine design and system understanding, while longer tracks move toward deeper cycle calculations, component sizing logic, performance interpretation, CAD direction, and detailed technical documentation.
01
Engine mission and requirement definition
02
Engine architecture selection
03
Component flow and station mapping
04
Cycle and performance design logic
05
Final aircraft propulsion engine design report