Baret

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A student in a stone corridor, wearing a graphite visor and thin black gloves, both hands raised, looking into the empty space between them

A university for original minds.

Think deeply. Work closely with scholars. Use extraordinary tools to pursue questions that matter.

Founding proposal, 2026. Concept images.

A student alone at a wooden desk, writing a derivation by hand beside a laptop and a lamp
It begins with a private tutor, on a study morning

Why won't my controller reach its target?

A student's question about a teaching model of a room: with a heat disturbance of d = 4, the air will not come down to a = 1.

The tutor can ask a question, give a hint or explain a worked example. When a number matters, a checked service returns it, and the tutor explains that result and makes its limits visible.

Four students and a grey-haired professor stand in a tall stone hall looking up; one student points at the copper tubes of a heat exchanger suspended above them
Then a shared model

One object. Five points of view.

Four students and a professor pull a heat exchanger apart and argue about why its geometry changes the response.

A student at a window bench, holding a small gauge wired to a copper cooling rig, a notebook open beside it
Then a measurement

A model is only a model until the apparatus agrees.

Model response for two hours at d = 3, u = 1. An invented teaching case; the bench is where it is tested.

Two hands in matte black haptic research gloves with jointed fingers, seating a small copper fitting on a stone bench
Then a rehearsal

Some things are only learned by hand.

Instrumented gloves, 135 tactile actuators per hand on the reference device, for tolerances and selected cues.

Two bare hands turning a brass flange on a dark stone bench by a window, a small gauge beside it
Then the same manipulation, for real

The bench does not simulate.

A student stands and speaks to two seated assessors seen from behind, a small copper rig on the table between them
And at the end, an individual defense

Defend what the result does not promise.

The proposal's reference project expects a result that limits what the system can promise. The defense changes a condition and asks you to reason from your own work.

A constructed reference case, neither a completed student project nor a claim that capstone delivery has been tested.

Move the disturbance. Find where the promise ends.

This is the proposal's own teaching model, computed in your browser: air and wall temperature, one step a minute, a cooling command that may only run from 0 to 1. It is an invented teaching case, not a calibrated room.

Target: an air deviation of 1 °C. The controller is told to do whatever the target requires, up to the limit of the command.

Settles at
1.0 °C

Command required: 1.00. Allowed: 0 to 1.

Reachable, exactly at the limit of the command.

Steady relation a = d − 2u. At d = 3 the command sits exactly at the limit; at d = 4 the proposal's reference solution reads target infeasible in this model. It does not establish physical safety or model accuracy.

Baret brings exceptional students into close contact with accomplished scholars, and gives them the tools to investigate questions at a depth that ordinary teaching often cannot reach.

A founding proposal. Nothing here implies existing appointments, an authorized degree or measured outcomes.

Students learn mathematics and computation, investigate the physical world, and read closely about human experience and institutions. They specialize in Computational Systems or Physical Systems Modeling and finish with a substantial investigation they defend individually.

Specified, with its page in the design Illustrated Not decided