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    GATE Aerospace Engineering (AE) Calculators

    Calculators for the numerical questions in GATE Aerospace Engineering, from the standard atmosphere and aircraft performance to compressible flow, structures and propulsion, each showing the working.

    55 calculators · 6 converters · common conversions

    Engineering Mathematics

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    Flight Mechanics

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    Space Dynamics

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    Aerodynamics

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    Structures

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    Propulsion

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    • Axial Compressor Stage Calculator – Blade speed, whirl velocities, inlet temperature and efficiency → work, temperature rise, pressure ratio and reaction.
    • Nozzle Flow Calculator – Chamber pressure and temperature, throat area and expansion ratio → mass flow, exit conditions, thrust and Isp.
    • Rocket Thrust Calculator – Mass flow, exhaust velocity, exit and ambient pressure and exit area → thrust and specific impulse.
    • Rocket Equation Calculator – Specific impulse and mass ratio → Δv; or the mass, propellant or Isp needed for a Δv.
    • Air–Fuel Ratio Calculator – Fuel formula and excess air → stoichiometric and actual air–fuel ratio, φ and λ.

    Unit Converters for GATE Aerospace (AE)

    Common GATE Aerospace (AE) Conversions

    How to use these GATE Aerospace Engineering calculators

    GATE AE numerical questions lean on a handful of relations used again and again: the standard atmosphere, the lift equation and drag polar, the performance equations for stall, turning, climbing, gliding and range, Kepler’s laws, the isentropic and shock relations of compressible flow, thin-walled structures and the thrust equations of jets and rockets. Each has its own calculator here, alongside the structures and vibration tools shared with mechanical engineering.

    The atmosphere follows ICAO Doc 7488 with R = 287.05287 J/(kg·K), the compressible-flow tools reproduce the NACA 1135 tables for any ratio of specific heats, and orbital calculations use measured gravitational parameters GM rather than G times a mass. Every input takes the unit you have, so knots, feet, kilonewtons and bar can go straight in.

    Work each question by hand, then check it here. When answers differ, compare the steps: the usual culprits are degrees versus radians, altitude versus radius from the planet’s centre, and static versus stagnation quantities.

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