AeroFluid
For Mechanical & Aerospace Engineers in India

India is going to build its own engines.
We're building the engineers.

Structured courses, real PYQs, and interactive engineering labs — for GATE, UPSC ESE, and PSU aspirants who want to go beyond rote memorisation.

10K+Learners
4.9★Rating
200+Hours
🇮🇳 +91
✓ No spam✓ OTP verification only✓ Free forever plan
What We're Building

Four parts of the same path.

Learn it, practice it, run it, and know where it takes you. Everything on AeroFluid is connected — from your first concept to your PSU appointment letter.

01Structured
📚

Curriculum

Four deep engineering disciplines — Thermodynamics, Fluid Mechanics, Gas Turbines, and Heat Transfer — taught in the sequence that builds real understanding, not isolated facts.

  • GATE-aligned modules
  • Concept-first approach
  • PDF notes included
Explore curriculum → (Coming Soon)
02Practice
🎯

PYQ Practice

Every previous year question from GATE, UPSC ESE, and top PSU exams — tagged by topic, sorted by year, with full worked solutions that show the reasoning, not just the answer.

  • 2000+ solved PYQs
  • Topic-wise filter
  • Difficulty tags
Start practising →
03Interactive
⚙️

Engineering Labs

Parametric 3D models, live Brayton cycle calculators, animated flow visualisations — the kind of interactive tools that make thermodynamic concepts click in ways textbooks never do.

  • Gas turbine digital twin
  • Live cycle calculator
  • Flow animations
Open the labs → (Coming Soon)
04Guidance
🚀

Career Paths

GATE ranks, PSU cutoffs, UPSC ESE patterns, private sector hiring — mapped out clearly so you know exactly what score you need and what the next step looks like.

  • PSU cutoff tracker
  • GATE strategy guide
  • Interview prep
See career paths → (Coming Soon)
ENGINEERING LABS · FREE

This is a gas turbine. Change something.

Two-spool or three-spool. Orbit the 3D model, slice it open, hover any component for its geometry and live thermodynamic state. When the cycle won't close, it tells you why — because that failure is the lesson.

Digital twin · parametric geometry
• PYQ PRACTICE

Every question has a trap. We show you where it is.

THERMODYNAMICS · COMPRESSOR EFFICIENCY

Air enters an adiabatic compressor at 300 K and is compressed through a pressure ratio of 8. The isentropic efficiency of the compressor is 0.85. Taking γ = 1.4, the actual exit temperature is closest to:

A 506.9 K
B 543.4 K
MOST CHOSEN
C 586.4 K
CORRECT
D 603.4 K

Why most students pick B

543.4 K is the isentropic exit temperature. It's a real number, correctly calculated — which is exactly why it feels right. Students compute it, see it sitting in the options, and stop. Efficiency was given in the question and never used. An unused given is almost always a trap.

The actual route

T2s = 300 × 8^(0.4/1.4) = 543.4 K
ΔTs = 243.4 K
ΔT = 243.4 / 0.85 = 286.4 K
T2 = 300 + 286.4 = 586.4 K

Isentropic efficiency compares ideal work to actual work. Real compression always costs more, so the actual exit temperature must be higher than the isentropic one.

CURRICULUM

One curriculum. Every exam. And the job after it.

We don't teach to a paper. We teach mechanical engineering properly — deep enough that GATE, PSU and ISRO papers become something you can sit rather than something you cram for, and deep enough that it still holds up on your first day at work.

CORE

Thermodynamics

Entropy, availability, cycles — taught with physical intuition, not formula sheets.

RECORDING NOW
CORE

Fluid Mechanics

Boundary layers, turbulence, pipe flow — the way it actually behaves in hardware.

PLANNED
CORE

Heat Transfer

Conduction, convection, radiation — for engineers who will design, not just solve.

PLANNED
CORE

Strength of Materials

Stress, strain and failure — the foundation every structural role assumes you have.

PLANNED

All 13 mechanical engineering subjects are in scope. Each goes live as it's finished — nothing held back for a launch date.