A visual, reactive university course

Learn control by predicting, seeing, and doing.

Short visual explanations lead directly into reactive experiments and guided exercises. The mathematics stays rigorous; the learning loop stays active.

Closed-loop altitude hold

Disturb. Measure. Correct.

simulation
reference measured altitudee(t) = 0.00 m

One canonical course

Change the route, not the fundamentals.

Explorer

Build intuition that transfers

Applications, sandboxes, and lighter checks around the same conceptual spine.

Unofficial TUM ACE exam prep

Match notation and exam demands

The shared core plus Lohmann notation, ACE sequencing, and original exam-style work.

Independent depth dial

Show derivations in either mode

Proofs and extended derivations appear exactly where they support the main lesson.

Complete curriculum

Ten modules, each built from short lessons

5 core pilot lessons are ready.7 lessons are ready, including two exam problem classes.

  1. 01

    What control is

    Feedback, feedforward, disturbances, loop structure, and the central idea of correcting error.

    5 lessons · 1 core pilot live
  2. 02

    Modeling dynamic systems

    From physical laws to ODEs, state variables, transfer elements, and useful linear models.

    6 lessons · 3 core pilot live · 1 exam workshop
  3. 03

    Laplace and transfer functions

    Use the Laplace transform to expose dynamics, combine blocks, and solve input–output problems.

    5 lessons · planned
  4. 04

    Response and stability

    Time response, system type, steady-state error, stability, dominant poles, and model reduction.

    6 lessons · planned
  5. 05

    Frequency-domain analysis

    Bode plots, Nyquist, margins, sensitivity functions, and practical robustness limitations.

    6 lessons · planned
  6. 06

    Classical controller design

    Close the loop with P, PI, PD, and PID control, then shape behavior systematically.

    6 lessons · 1 core pilot live · 1 exam workshop
  7. 07

    Practical control structures

    Structures used in real systems: cascade, two degrees of freedom, feedforward, and anti-windup.

    5 lessons · planned
  8. 08

    State-space design

    Analyze and design multivariable dynamics using controllability, observability, feedback, and observers.

    6 lessons · planned
  9. 09

    Digital control

    Sampling, zero-order hold, z-domain models, discrete stability, and implementation on a computer.

    6 lessons · planned
  10. 10

    Where control goes next

    A bridge to optimal, predictive, stochastic, nonlinear, and learning-based control.

    5 lessons · planned

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