## GATE Aerospace Engineering (AE) Syllabus 2023

Aerospace Engineering is a primary field of Engineering related to the development of Aircraft and Spacecraft. Aerospace Engineering (AE) is also considered as the first paper or primary paper of the GATE (Graduate Aptitude Test in Engineering) Exams. Exam authorities usually release the GATE Syllabus for Aerospace Engineering 2023 and the brochure on the official website. Students can also refer to the GATE aerospace syllabus from this article. Please find below the latest Aerospace Engineering Syllabus for the students aspiring to crack the GATE exams.

Under the specified subject, as per the updated GATE Syllabus for Aerospace Engineering 2023, there are six sections, with the topics under each section divided into two categories â€“ Core Topics and Special Topics. Meanwhile, from the GATE Aerospace Engineering Syllabus, please know that the corresponding sections of the GATE previous year question paper will contain 90% of their questions on core topics and the remaining 10% on special topics.

## GATE Aerospace Engineering Syllabus 2023

Meanwhile, students who aspire to ace the exams are advised to refer to the GATE Aerospace Engineering Syllabus 2023 PDF download and prepare more diligently to perform well in the exam. The six sections of the GATE Syllabus For Aerospace Engineering (AE) 2023 comprise topics such as Engineering Mathematics, Flight Mechanics, Space Dynamics, Aero Dynamics, Structures and Propulsion.

Find the complete information regarding the subject, Aerospace Engineering and the GATE Exams from the PDF link, and the web page content given below. The Aerospace Engineering Syllabus for GATE 2023 will provide an idea to the students about the topics from which questions are asked in the exams and the key concepts discussed.

### GATE Syllabus For Aerospace Engineering (AE) 2023

 SECTIONS CORE TOPICS SPECIAL TOPICS Section1: Engineering Mathematics Linear Algebra: Vector algebra, Matrix algebra, systems of linear equations, rank of a matrix, eigenvalues and eigenvectors. Calculus: Functions of single variable, limits, continuity and differentiability, mean value theorem, chain rule, partial derivatives, maxima and minima, gradient, divergence and curl, directional derivatives. Integration, Line, surface and volume integrals. Theorems of Stokes, Gauss and Green. Differential Equations: First order linear and nonlinear differential equations, higher order linear ODEs with constant coefficients. Partial differential equations and separation of variables methods. Fourier Series, Laplace Transforms, Numerical methods for linear and nonlinear algebraic equations, Numerical integration and differentiation. Complex analysis. Probability and statistics. Section 2: Flight Mechanics Atmosphere: Properties, standard atmosphere. Classification of aircraft. Airplane (fixed wing aircraft) configuration and various parts. Pressure altitude; equivalent, calibrated, indicated air speeds; Primary flight instruments: Altimeter, ASI, VSI, Turn-bank Indicator. Angle of attack, sideslip; Roll, pitch & yaw controls. Aerodynamic forces and moments. Airplane performance: Drag polar; takeoff and landing; steady climb & descent; absolute and service ceiling; range and endurance, load factor, turning flight, V-n Diagram. Winds: head, tail & cross winds. Static stability: Stability & control derivatives; longitudinal stick fixed & free stability; horizontal tail position and size; directional stability, vertical tail position and size; lateral stability. Wing dihedral, sweep & position; hinge moments, stick forces. Dynamic stability: Euler angles; Equations of motion; Decoupling of longitudinal and lateral-directional dynamics; longitudinal modes; lateral-directional modes. Section 3: Space Dynamics Central force motion, determination of trajectory and orbital period in simple cases. Keplerâ€™s laws; escape velocity. No Special Topics Section 4: Aerodynamics Basic Fluid Mechanics: Conservation laws: Mass, momentum and energy (Integral and differential form); Dimensional analysis and dynamic similarity; Potential flow theory: sources, sinks, doublets, line vortex and their superposition. Elementary ideas of viscous flows, including boundary layers. Airfoils and wings: Airfoil nomenclature; Aerodynamic coefficients: lift, drag and moment; Kutta- Joukoswki theorem; Thin airfoil theory, Kutta condition, starting vortex; Finite wing theory: Induced drag, Prandtl lifting line theory; Critical and drag divergence Mach number. Compressible Flows: Basic concepts of compressibility, One-dimensional compressible flows, Isentropic flows, Fanno flow, Rayleigh flow; Normal and oblique shocks, Prandtl-Meyer flow; Flow through nozzles and diffusers. Wind Tunnel Testing: Measurement and visualization techniques. Shock – boundary layer interaction Section 5: Structures Strength of Materials: Stress and strain: Three-dimensional transformations, Mohr’s circle, principal stresses, Three-dimensional Hooke’s law, Plane stress and strain. Failure theories: Maximum stress, Tresca von Mises. Strain energy. Castigliano’s principles. Statically determinate and indeterminate trusses and beams. Elastic flexural buckling of columns. Flight vehicle structures: Characteristics of aircraft structures and materials. Torsion, bending and shear of thin-walled sections. Loads on aircraft. Structural Dynamics: Free and forced vibrations of undamped and damped SDOF systems. Free vibrations of undamped 2-DOF systems. Vibration of beams. Theory of elasticity: Equilibrium and compatibility equations, Airyâ€™s stress function. Section Section 6: Propulsion Basics: Thermodynamics, boundary layers, heat transfer, combustion and thermochemistry. Aerothermodynamics of aircraft engines: Thrust, efficiency, range. Brayton cycle. Engine performance: ramjet, turbojet, turbofan, turboprop and turboshaft engines. Afterburners. Turbomachinery: Axial compressors: Angular momentum, work and compression, characteristic performance of a single axial compressor stage, efficiency of the compressor and degree of reaction, multi-staging. Centrifugal compressor: Stage dynamics, inducer, impeller and diffuser. Axial turbines: Stage performance. Rockets: Thrust equation and specific impulse, rocket performance. Multi-staging. Chemical rockets. Performance of solid and liquid propellant rockets. Aerothermodynamics of non-rotating propulsion components such as intakes, combustor and nozzle. Turbine blade cooling. Compressor-turbine matching, Surge and stall.

### GATE Aerospace Engineering Marking Scheme 2023

In the meantime, find below in this article the marking scheme for the GATE AE Exam paper. Also, see the exam pattern as per the GATE Aerospace 2023 Syllabus for General Aptitude and Subject marks. All questions are expected to be of 1 or 2 marks.

• General Aptitude(GA) of Aerospace Engineering(AE) – 15 Marks
• Subject Marks – 85 Marks
• Total Marks – 100 Marks
• Total Time Allotted in Minutes for the subject – 180 Minutes

All students must download the latest version of the GATE Aerospace Engineering Syllabus before preparing for the GATE AE Exams 2023. Also, after referring to the GATE syllabus, students are advised to prepare for the exams with the help of the Preparation materials, textbook, and GATE previous year question paper. Students can stay tuned to BYJUâ€™S and access updates regarding the GATE Exams and Resources.

## Frequently Asked Questions on GATE Aerospace Engineering Syllabus 2023

Q1

### 1. What does the GATE Syllabus For Aerospace Engineering (AE) Comprise?

GATE Aerospace Engineering Syllabus 2023 consists of 6 sections, the topics of which have been divided into two categories â€“ Core Topics and Special Topics.

Q2

### 2. How many marks are accounted for from the General Aptitude(GA) of Aerospace Engineering(AE)?

Based on the GATE Syllabus 2023 of Aerospace Engineering, the General Aptitude(GA) of Aerospace Engineering(AE) accounts for 15 marks in the Question paper.

Q3

### 3. What is the approximate time taken to finish a subject if the candidate self-studies, as per the GATE Aerospace Engineering Syllabus?

The time taken to complete the subject depends on the candidateâ€™s capabilities as well as their basic knowledge of the subjects, aptitude, concentration level, and most importantly, the hard work they put in to perform well in the examination.

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