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Optical Bench Diagram

Un schéma propre et annoté de n'importe quel banc d'optique.

Transforme votre IA en illustrateur de schémas techniques — elle dispose sources de lumière, lentilles, miroirs et détecteurs le long d'un axe optique annoté, pour qu'un montage expérimental se lise d'un coup d'œil.

Aperçu de Optical Bench Diagram
Idéal pour
Professeurs de physique, enseignants de laboratoire et étudiants qui documentent leurs expériences
Temps nécessaire
~20 min
Niveau
Accessible aux débutants

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Contenu du pack

Un fichier SKILL.md (le guide pratique) + un modèle de départ. Aperçu :

Optical Bench Diagram

When to use

  • You need a diagram of a lens, mirror, or prism experiment for a lab handout, a lesson, or a report
  • A student asks "what does the setup actually look like?" and a paragraph of description isn't landing
  • You're documenting an experiment so someone else can rebuild it from the diagram alone
  • You want a clean top-view bench layout showing where each component sits on the rail
  • You're explaining ray behavior — focal points, reflections, refraction — and need rays drawn, not just described

Workflow

  1. List the components (input: experiment description → output: component list)
    Name every physical piece in the setup: light source, slits, lenses (converging or diverging, with focal length), mirrors (flat, concave, convex), prisms, screens, detectors, and the bench or rail itself. Include the numbers you know — focal lengths, distances between components, wavelengths — and mark the ones you're estimating. A diagram built from a guessed focal length silently teaches the wrong geometry, so guesses get flagged, not hidden.
  2. Fix the beam path (input: component list → output: beam-path sequence)
    Trace the light in order, from source to detector: source → slit → lens → mirror → screen. Write it as a numbered sequence before drawing anything — this is the spine of the diagram. For each interaction, note what the light does: passes straight through, converges, diverges, reflects at a stated angle, or splits. If the path branches (a beam splitter, a prism spreading wavelengths), list each branch separately so none gets dropped.
  3. Lay out the bench (input: beam-path sequence → output: top-view layout)
    Draw the top view first: a horizontal rail as the baseline, components placed along it at their stated distances, rays drawn as straight lines with arrowheads showing direction. Keep one consistent direction of travel — left to right — unless the setup genuinely folds back on itself. Use standard symbols: a lens as a vertical line with arrowheads at the ends (outward for converging, inward for diverging), a mirror as a thick line with hatching on the back, a source as a small lamp or aperture symbol.
  4. Label everything (input: layout → output: labeled diagram)
    Every component gets a label with its name and its key value ("Converging lens, f = 10 cm"). Every ray gets a label where it changes ("reflected ray", "refracted ray"). Mark the optical axis as a dashed line, mark focal points with F and 2F where they matter, and add a scale bar or a distance annotation between components. A diagram with unlabeled rays forces the reader to guess which line is which — the labels are the diagram.
  5. Check against reality (input: labeled diagram → output: verified diagram)
    Compare the finished diagram against the real bench or the experiment's stated numbers: do the distances match, does the ray through the focal point actually behave as drawn, is anything mirrored or flipped? Read the diagram backwards, from detector to source, as a second check — a layout error that survives a forward read often shows up in reverse. Fix the drawing, not the physics: if the rays don't behave as drawn, the setup description is wrong somewhere, and the diagram just found it.

Aperçu du modèle

Optical Bench Diagram — Setup Template

One diagram, one setup. List the components before drawing anything.

Experiment

Title: {experiment name} Purpose: {what this setup demonstrates or measures} Top view / side view: {top view is the default; note side view if needed}

Component list

Estimated values (flagged, not hidden): {value + why it's an estimate}

Beam path (numbered, source → detector)

  1. {source} → {next component}: {what the light does}
  2. {component} → {next component}: {what the light does}
  3. {branch, if any}: {component} → {detector}: {what the light does}

Diagram checklist

[ ] Rail baseline drawn, left-to-right beam travel

Le pack de compétence lui-même (SKILL.md + modèle) est rédigé en anglais.

Pro — les 511 compétences

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