Industrial Plasma Research Chamber

Educational 3D model

PLASMA / VACUUM / MAGNETICS

Engineering the invisible.

Investigate the structure of a conceptual inductively coupled plasma chamber. Drag to orbit · Scroll to zoom · Select a subsystem.

01 / Configuration

Inspection controls

Vessel cutaway0%Exploded separation0%Selected subsystem01 / 16

Independent structural assemblies and instrument networks.

Camera presetsOrbit / zoom

Show infrastructure and service equipment

02 / Physics explorer

Illustrative plasma inputs

Not measured or experimentally validated. Vary the inputs to evaluate three textbook relationships.

Electron density (illustrative)1.20 × 10¹⁸ m⁻³Electron temperature (illustrative)7.0 eVMagnetic field (illustrative)0.16 T

Electron plasma frequency—Textbook: fₚ = √(nₑe² / ε₀mₑ) / 2π

Debye shielding length—Textbook: λᴅ = √(ε₀ Tₑ[eV] / nₑe)

Electron cyclotron frequency—Textbook: f꜀ = eB / 2πmₑ

Independent frequency cross-check: —

03 / Sequencing

Guided assembly

Reveal systems in dependency order, from the isolation foundation to the illustrative plasma and field effects.

Assembly inactive. All 16 subsystems visible.

Animate conceptual process effects

04 / Interpretation

The science

Equations, assumptions & provenance

Operating mechanism. An alternating RF current can induce an electric field that energizes electrons. Electron collisions and ionization can maintain a partially ionized gas in a reduced-pressure chamber. External coils are shown as a conceptual magnetic-field system.

Textbook equations. The electron plasma frequency uses ωₚ² = nₑe²/(ε₀mₑ). Electron Debye length uses λᴅ² = ε₀kᴮTₑ/(nₑe²) and assumes a Maxwellian electron temperature, with Tₑ shown in electron-volts. Electron cyclotron frequency uses ω꜀ = eB/mₑ. These do not determine device performance.

Independent check. A separate approximation uses 27.99249 GHz/T × B (textbook, rounded) for cyclotron frequency and is compared directly against the engine result.

Genuine science: vacuum boundaries, RF inductive coupling, cooling, diagnostics and field effects are real engineering concepts. Engineering-inspired: vessel segmentation, maintenance decks, pump layout and cabinet topology. Simplified: uniform B, electron-only plasma properties and static geometry. Speculative: precise proprietary-like internals, filament shapes and exact component sizing are not asserted.

All dimensions in the model are scaled artistic proportions; all control values are illustrative; physical constants are textbook. No performance, vacuum pressure, coolant demand or energy-efficiency specification is claimed.

Illustrative design, not affiliated with any real institution or manufacturer.

WebGL2 3D model with Canvas2D fallback · No remote resources · No real facility represented.