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Supercell Explorer

An interactive 3D scientific-computing laboratory for exploring how observed atmospheric wind profiles and prescribed storm-relative flow shape passive-tracer trajectories and vertical-vorticity tilting. Built around real sounding-derived environments from Goshen, Prospect Valley, Dumas, and Moore, the project combines interactive visualization, trajectory analysis, historical-sample inspection, and explicit diagnostic validity checks. It is a controlled kinematic experiment — not a weather forecast or a full atmospheric simulation.

REACTTYPESCRIPTTHREE.JSSCIENTIFIC VISUALIZATIONKINEMATICSRESEARCH PROTOTYPE

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Supercell Explorer

A look at the project in real use.

Value

What the project delivers

Observed environments

Explore sounding-derived wind profiles from Goshen, Prospect Valley, Dumas, and Moore — or a prescribed demo profile — inside a controlled kinematic laboratory.

Follow a tracer

Release a passive tracer, record its path through prescribed storm-local flow, and see how environmental wind and storm-relative geometry shape the trajectory.

Vertical-tilting analysis along the path

When an Analysis representation is available, read the vertical-tilting diagnostic on a fixed symmetric color scale along the recorded trajectory — not as a forecast, but as an inspectable signal.

Historical sample inspector

Click a historical sample to inspect environmental horizontal vorticity, prescribed updraft-gradient geometry, numeric verification, and a constrained what-if alignment.

Honest laboratory boundary

The lab does not model a self-evolving supercell, thermodynamics, or storm reconstruction. Observed soundings are inputs to a prescribed kinematic experiment, not proof of a real storm simulation.

Audience

Who it’s for

Atmospheric science students and researchers curious about tilting mechanisms in a controlled setting

Engineers interested in scientific visualization, 3D diagnostic UIs, and honest model boundaries

Anyone who wants to inspect storm-relative flow as a laboratory, not as a weather forecast

Developers interested in complex frontend architecture bridging interactive 3D, scientific data, and diagnostic computation

Open the laboratory

Follow a tracer through observed environments and inspect why the tilting diagnostic changes along the path. Desktop recommended for the full 3D experience.