Charge particles and collect them on plates. Discharge wires, high-voltage insulators, collecting plates and hoppers reveal the separation mechanism.
• 3D scene parts: Gas casing / inlet; discharge electrodes; collecting plates; hv supply / insulators; rapping / dust hopper. • Controls: Gas flow (2–20 m³/s); Collecting area (100–600 m²); Effective migration velocity (0.01–0.15 m/s); Inlet dust (50–500 mg/m³); Disable high voltage. • Live readouts: Dust collection (%); Outlet dust (mg/m³); Collected dust rate (g/s); Hopper dust inventory (kg). • Guided experiments: High voltage lost; Fast gas flow. • Four tabs (visual laboratory, curves and measurements, experiments, learn and assess), a model-verification run, a timestamped event log and a trial report.
η = 1−exp(−wA/Q) HV off: w = 0 Collected g/s = Q Cin η /1000 1 playback s = 10 process s
Deutsch–Anderson ideal collection model: uniform migration and flow, no re-entrainment, back corona or size distribution. Rapping motion is illustrative; hopper total accumulates ideal captured mass. Try the preset experiments, then compare the live readouts with the equations.
An electric field moves charged dust..
No. Deutsch–Anderson ideal collection model: uniform migration and flow, no re-entrainment, back corona or size distribution. Rapping motion is illustrative; hopper total accumulates ideal captured mass.
Deutsch–Anderson ideal collection model: uniform migration and flow, no re-entrainment, back corona or size distribution. Rapping motion is illustrative; hopper total accumulates ideal captured mass.