ScienceThe BestieIntermediate
Fluid Engineering in Practice, a free science course on Tomo

Fluid Engineering in Practice

Bridge the gap between textbook fluid physics and working piping systems. Learn to calculate practical friction losses, match pumps to system resistance curves, and prevent catastrophic cavitation and water hammer.

Like Duolingo, but for Fluid Engineering in Practice. Tomo turns the whole topic into a game you play five minutes a day, until it actually sticks.

A short one: 11 levels across 2 sections, about 22 minutes end to end, roughly 4 days at five minutes a day. It moves through Moving Fluids Through Real Pipes and Managing Critical System Dynamics. It assumes you already know the basics.

11 bite-size levelsAbout 5 minutes each

Free forever · No credit card · iPhone & Android

Flo the Flamingo, the guide who teaches the Fluid Engineering in Practice course
Fluid Engineering in Practice
with Flo the Flamingo
11
Levels
2
Sections
5
Min/day
What you'll learn

Key ideas in Fluid Engineering in Practice

  • Shear stress along pipe walls continuously converts mechanical energy into thermal energy.
  • Bernoulli balances assume zero dissipation without a dedicated head loss term.
  • Uniform pipe diameter keeps kinetic energy constant, forcing friction to deplete pressure head.
  • Laminar head loss depends strictly on viscous shearing and flow speed.
  • Turbulence generates inertial eddies that drive quadratic velocity loss.
  • Roughness spikes only influence resistance once flow transitions to turbulence.
  • A thin, slow laminar sublayer blankets the pipe wall even in turbulent flow.
  • Protrusions submerged within the sublayer do not shed drag-inducing eddies into the main flow.
  • Higher Reynolds numbers shrink the sublayer, exposing roughness elements.
  • Minor losses across fittings equal a loss coefficient multiplied by velocity head.
  • Velocity head is proportional to the square of fluid velocity.
  • Equivalent length converts localized fitting losses into straight pipe distance.
  • The method lets engineers sum total straight pipe runs without separate fitting equations.
  • Each valve or bend corresponds to a specific diameter-to-length ratio.
  • Doubling velocity quadruples the localized dynamic pressure drop through fittings.
  • Static head stays constant regardless of how fast fluid moves.
Why not just Google it

You've tried the other tabs

Wikipedia

Thirty open tabs. Four facts you actually kept.

YouTube

You watched. You nodded. By Sunday it was gone.

ChatGPT

One answer, then back to scrolling.

Online courses

Eight weeks. You meant to finish. You didn't.

Tomo gives Fluid Engineering in Practice the Duolingo treatment: levels, streaks, and quick quizzes that test what you just learned. That game loop is what the tabs above never had, so it's the one you actually finish.

Try a question

Here's what playing it feels like

A real question from this course. Take your best guess.

Why Real Pipes Lose Pressure

Why does the basic Bernoulli equation fail to show a pressure drop in a straight, level pipe?

Get it right to open this lesson and 10 more in the app.

Course map

Where Fluid Engineering in Practice takes you

  1. 1

    Moving Fluids Through Real Pipes

    • Diagnosing Friction and Pressure Losses
    • Matching Pumps to System Curves
  2. 2

    Managing Critical System Dynamics

    • Preventing Cavitation and Pump Starvation
    • Suppressing Water Hammer and Shockwaves

2 sections · 4 units · 11 levels. Built to play, not to enroll.

How it's taught

You pick the voice

This course
The Bestie

Fluid Engineering in Practice is taught in the The Bestie style: your friend who just gets it. Want a different feel? In the app you can spin up the same topic in any of Tomo's teaching styles. Same facts, totally different vibe.

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