Integrated program AME(License) + B.Tech in AME Syllabus
AME (License) + B Tech in AME Syllabus
The AME (License) + B.Tech in AME syllabus combines core engineering concepts with specialized aircraft maintenance training. Topics include aerodynamics, propulsion, avionics, materials science, and maintenance protocols. Practical modules cover safety regulations, troubleshooting, and repairs, meeting DGCA standards for licensing. This program prepares students for technical roles in aviation maintenance and engineering.
DGCA Modules List for AME Course Syllabus
Module 1 – Mathematics
Arithmetic
Algebra
Geometry
Module 2 – Physics
Matter
Mechanics
Thermodynamics
Optics
Wave Motion and Sound
Module 3 – Electrical Fundamentals
Electron Theory
Static Electricity and Conduction
Electrical Terminology
Generation of Electricity
DC Sources of Electricity
DC Circuits
Resistance/Resistor
Inductance/Inductor
DC Motor/Generator Theory
Resistive (R), Capacitive (C) and Inductive (L) Circuits
Transformers
Filters
AC Generators
AC Motors
Module 4 – Electronic Fundamentals
Semiconductors
Printed Circuit Boards
Servomechanisms
Module 5 – Digital Techniques Electronic Instrument System
Electronic Instrument Systems
Numbering Systems
Data Conversion
Data Buses
Logic Circuits
Basic Computer Structure
Microprocessors
Integrated Circuits
Multiplexing
Fibre Optics
Electronic Displays
Electrostatic Sensitive Devices
Software Management Control
Electromagnetic Environment
Typical Electronic/Digital Aircraft Systems
Module 6 – Materials and Hardware
Aircraft Materials — Ferrous
Aircraft Materials — Non-Ferrous
Aircraft Materials – Composite and Non-Metallic
Corrosion
Fasteners
Pipes and Unions
Springs
Bearings
Transmissions
Control Cables
Electrical Cables and Connectors
Module 7 – Maintenance Practices
Safety Precautions-Aircraft and Workshop
Workshop Practices
Tools
Avionic General Test Equipment
Engineering Drawings, Diagrams and Standards
Fits and Clearances
Electrical Wiring Interconnection System (EWIS)
Riveting
Springs
Bearings
Transmissions
Control Cables
Material handling
Welding, Brazing, Soldering and Bonding
Aircraft Weight and Balance
Aircraft Handling and Storage
Disassembly, Inspection, Repair and Assembly Techniques
Abnormal Events
Maintenance Procedures
Module 8 – Basic Aerodynamics
Physics of the Atmosphere
Aerodynamics
Theory of Flight
Flight Stability and Dynamics
Module 9 – Human Factors
General
Human Performance and Limitations
Social Psychology
Factors Affecting Performance
Physical Environment
Tasks
Communication
Human Error
Hazards in the Workplace
Module 10 – Aviation Legislation
Regulatory Framework
CAR-66 Certifying Staff – Maintenance
CAR-145 — Approved Maintenance Organisations
Aircraft Operations
Aircraft Certification
CAR-M
Applicable National and International Requirements
Safety Management System
Fuel Tank Safety
Module 11A – Turbine Aeroplane Aerodynamics, Structures and Systems
Theory of Flight
Airframe Structures — General Concepts
Airframe Structures — Aeroplanes
Air Conditioning and Cabin Pressurisation (ATA 21)
Instruments/Avionic Systems
Electrical Power (ATA 24)
Equipment and Furnishings (ATA 25)
Fire Protection (ATA 26)
Flight Controls (ATA 27)
Fuel Systems (ATA 28)
Hydraulic Power (ATA 29)
Ice and Rain Protection (ATA 30)
Landing Gear (ATA 32)
Lights (ATA 33)
Oxygen (ATA 35)
Pneumatic/Vacuum (ATA 36)
Water/Waste (ATA 38)
On Board Maintenance Systems (ATA 45)
Integrated Modular Avionics (ATA 42)
Cabin Systems (ATA 44)
Module 11B – Piston Aeroplane Aerodynamics, Structures and Systems
Theory of Flight
Airframe Structures — General Concepts
Airframe Structures — Aeroplanes
Air Conditioning and Cabin Pressurisation (ATA 21)
Instruments/Avionic Systems
Electrical Power (ATA 24)
Equipment and Furnishings (ATA 25)
Fire Protection (ATA 26)
Flight Controls (ATA 27)
Fuel Systems (ATA 28)
Hydraulic Power (ATA 29)
Ice and Rain Protection (ATA 30)
Landing Gear (ATA 32)
Lights (ATA 33)
Oxygen (ATA 35)
Pneumatic/Vacuum (ATA 36)
Water/Waste (ATA 38)
Module 12 – Helicopter Aerodynamics, Structures and Systems
Theory of Flight — Rotary Wing Aerodynamics
Flight Control Systems
Blade Tracking and Vibration Analysis
Transmissions
Airframe Structures
Air Conditioning (ATA 21)
Instruments/Avionic Systems
Electrical Power (ATA 24)
Equipment and Furnishings (ATA 25)
Fire Protection (ATA 26)
Fuel Systems (ATA 28)
Hydraulic Power (ATA 29)
Ice and Rain Protection (ATA 30)
Landing Gear (ATA 32)
Lights (ATA 33)
Pneumatic/Vacuum (ATA 36)
Integrated Modular Avionics (ATA 42)
On Board Maintenance Systems (ATA 45)
Information Systems (ATA 46)
Module 13 – Aircraft Aerodynamics, Structures and Systems
Theory of Flight
Structures — General Concepts
Autoflight (ATA 22)
Communication/Navigation (ATA 23/34)
Electrical Power (ATA 24)
Equipment and Furnishings (ATA 25)
Flight Controls (ATA 27)
Instrument Systems (ATA 31)
Lights (ATA 33)
On Board Maintenance Systems (ATA 45)
Air Conditioning and Cabin Pressurisation (ATA 21)
Pressurisation
Fire Protection (ATA 26)
Fuel Systems (ATA 28)
Hydraulic Power (ATA 29)
Ice and Rain Protection (ATA 30)
Landing Gear (ATA 32)
Oxygen (ATA 35)
Pneumatic/Vacuum (ATA 36)
Water/Waste (ATA 38)
Integrated Modular Avionics (ATA 42)
Cabin Systems (ATA 44)
Information Systems (ATA 46)
Module 14 – Propulsion
Turbine Engines
Engine Indicating Systems
Starting and Ignition Systems
Module 15 – Gas Turbine Engine
Fundamentals
Engine Performance
Inlet
Compressors
Combustion Section
Turbine Section
Exhaust
Bearings and Seals
Lubricants and Fuels
Lubrication Systems
Fuel Systems
Air Systems
Starting and Ignition Systems
Engine Indication Systems
Power Augmentation Systems
Turbo-prop Engines
Turbo-shaft Engines
Auxiliary Power Units (APUs)
Powerplant Installation
Fire Protection Systems
Engine Monitoring and Ground Operation
Engine Storage and Preservation
Module 16 – Piston Engine
Fundamentals
Engine Performance
Engine Construction
Engine Fuel Systems
Carburetors
Fuel Injection Systems
Electronic Engine Control
Starting and Ignition Systems
Induction, Exhaust and Cooling Systems
Supercharging/Turbocharging
Lubricants and Fuels
Lubrication Systems
Engine Indication Systems
Powerplant Installation
Engine Monitoring and Ground Operation
Engine Storage and Preservation
Module 17 – Propeller
Fundamentals
Propeller Construction
Propeller Pitch Control
Propeller Synchronising
Propeller Ice Protection
Propeller Maintenance
Propeller Storage and Preservation
B.Tech in AME Syllabus
Engineering Mathematics: Focuses on advanced calculus, differential equations, and linear algebra to solve engineering problems. Provides essential analytical tools for applications in various engineering fields.
Engineering Physics: Covers fundamental principles like mechanics, thermodynamics, and electromagnetism. It applies these principles to solve practical engineering challenges in material and system design.
Engineering Chemistry: Studies chemical properties and reactions of materials relevant to engineering, such as corrosion and fuels. It includes applications in energy production and materials science.
Computer-Aided Design (CAD): Teaches digital design and drafting for engineering projects using specialized software. CAD enables precision in creating and modifying 2D and 3D models.
Aerodynamics: Explores the behavior of air and gases around solid objects, especially aircraft. It covers concepts like lift, drag, and thrust, which are vital in aviation and automotive design.
Propulsion Systems: Focuses on engines and other systems that generate thrust for vehicles and aircraft. It includes studying jet, piston, and rocket engines in terms of efficiency and design.
Avionics: Involves the study of electronic systems used in aircraft for navigation, communication, and flight control. Avionics are crucial for modern aviation safety and efficiency.
Aircraft Structures: Examines the design and composition of aircraft frameworks to ensure strength and stability. Topics include load-bearing structures, materials, and stress analysis.
Flight Mechanics: Analyzes aircraft motion and stability under various forces, including lift and gravity. It helps in understanding how different factors affect flight performance.
Control Systems: Studies automatic regulation of system behavior to ensure stability and efficiency. Widely used in aviation for autopilot and navigation systems.
Thermal Systems: Covers heat transfer, thermodynamics, and energy conversion in engineering. It’s essential for designing efficient engines and managing aircraft cooling systems.
Robotics and Automation: Focuses on designing automated systems and robotic mechanisms for various industries. Emphasizes control, programming, and operational efficiency.
Material Science: Examines the properties and applications of materials in engineering. It’s critical for selecting appropriate materials for durability and performance in various conditions.
Manufacturing Processes: Involves techniques for producing parts and products, including casting, welding, and machining. Essential for quality, cost-effective production in engineering.
Engineering Drawing and Graphics: Teaches standardized drawing techniques to represent engineering components. Essential for clear communication and accurate manufacturing.
Project Management: Provides skills in planning, organizing, and managing engineering projects from conception to completion. Focuses on budget, time, and resource management.
Industrial Training/Internship: Practical experience in an engineering environment to apply theoretical knowledge. Internships bridge the gap between classroom learning and real-world applications.
Frequently Asked Questions
What subjects are included in the syllabus?
The syllabus covers aerodynamics, propulsion, avionics, and aircraft structures.
Does the course include practical training?
Yes, practical training, internships, and projects are part of the program.
Are there specific DGCA modules covered?
Yes, DGCA modules include mathematics, physics, electrical fundamentals, and more.
Will I learn about aircraft materials?
Yes, both ferrous and non-ferrous materials, composites, and hardware are covered.
Are avionics included in the syllabus?
Yes, avionics, including electronic instrument systems and data conversion, are covered.
Is the course focused on maintenance practices?
Yes, safety precautions, tools, and maintenance procedures are key aspects.
Will I study human factors in aviation?
Yes, the syllabus includes human performance, limitations, and safety management.
Do I learn about aerodynamics?
Yes, basic and advanced aerodynamics, along with flight stability, are part of the curriculum.
Does the program include turbine engine studies?
Yes, topics like engine performance, fuel systems, and gas turbine engines are covered.
Are electronics and semiconductors included in the syllabus?
Yes, the syllabus includes semiconductors, servomechanisms, and integrated circuits.
Will I learn about aircraft structures?
Yes, airframe structures, flight controls, and cabin pressurization are part of the syllabus.
Are propulsion systems taught in the course?
Yes, the syllabus includes both turbine and piston engine propulsion systems.
What about aviation legislation?
Aviation legislation, including regulations from CAR-66 and CAR-145, is taught.
Is there a focus on environmental safety?
Yes, safety management and fuel tank safety are covered in the syllabus.