The laboratories
Every laboratory pairs a named control set with live three-dimensional geometry and a structured export. Results recompute from the inputs on screen; nothing is precomputed or replayed from a recording.
FusionSim
Integrates the published p–¹¹B cross section over a Maxwellian relative-energy distribution to give ⟨σv⟩, reaction-rate density and fusion power. Resolves quasineutral composition and Zeff, compares fusion power against relativistic bremsstrahlung, and sweeps any input over 3–101 linear or logarithmic points with seeded Monte-Carlo sensitivity.
- Rate model
- ⟨σv⟩ Maxwellian
- Cross section
- 41 pts, log–log
- Radiation
- 1–511 keV fit
Isotope Fusion Explorer
Reaction energetics from the AME2020 mass slice using relativistic invariant-s kinematics: Q values, laboratory thresholds, binding energies and exact two-body partitions across nine channels. A sequential p+¹¹B→α+⁸Be*→3α sampler performs exact Lorentz boosts and closes energy, momentum and the alpha mass shell on every event.
- Kinematics
- Invariant s
- Channels
- 9
- Frames
- CM and lab
Virtual Reactor Lab
A magnetic-mirror workbench in the original 33-component reactor hall. Solves the parabolic axial field B(z)=B₀[1+(Rm−1)(2z/L)²] with a divergence-free near-axis radial completion, then reports loss-cone angle, trapped fraction, relativistic gyroradius and gyrofrequency, turning point, bounce period, Debye length and stored thermal inventory. Cutaway, X-ray and explode views expose every component.
- Field
- Parabolic mirror
- Components
- 33 identified
- Invariant
- Magnetic moment
Torus Lab
A full-window toroidal observatory computing the vacuum toroidal field Bφ=B₀R₀/R, the poloidal field from plasma current, cylindrical edge safety factor q(a), beta and normalised-beta diagnostics, Greenwald density comparison and relativistic alpha orbit scales. Over 150 named controls are organised across tour, experiment, particle, sensor, energy and comparison modes with camera rails and timeline playback.
- Fields
- Bφ + Bθ
- Screens
- q, β, Greenwald
- Controls
- 150+ named
AlphaTrack
A detector-image workbench that runs the full segmentation pipeline in the browser: luminance conversion, Otsu or manual thresholding, 4- or 8-connected component labelling, then area, centroid, bounding box, equivalent diameter and pixel-edge compactness per object. Counting intervals use exact central Garwood below n=100 and an identified Wilson–Hilferty approximation above. Images never leave the machine.
- Threshold
- Otsu / manual
- Connectivity
- 4 or 8
- Export
- JSON · CSV · PNG
DirectConvert
Electrostatic energy recovery from an MeV alpha spectrum, modelled two ways. A discrete stage ledger credits Erec=qΔφ to the highest strictly admissible stage and checks Esource=Erecovered+Eresidual exactly. In parallel, the Rax–Kolmes–Fisch adiabatic E×B limit is solved by bisection and verified against its θ=0° and 90° analytic limits. Child–Langmuir screens run per stage gap.
- Ledger
- Exact closure
- Adiabatic limit
- Rax et al.
- Transport
- V3⁄2/d² screen
Reactor 3D
Couples the source, magnetic configuration, alpha tracer, collector and plant-boundary layers into one instrumented workbench. Particle paths integrate by relativistic Boris rotation in prescribed static analytic fields, verified by constant kinetic energy in a frozen uniform field and by centred finite-difference ∇·B checks. Every coupling assumption is recorded with the run.
- Integrator
- Boris, relativistic
- Geometries
- Mirror and torus
- Checks
- |K| const · ∇·B
What every laboratory shares
The seven applications are built on the same numerical kernels, the same bundled datasets and the same record format, so a value calculated in one laboratory means the same thing in another.
- Published data, read directly Cross sections come from the bundled Sikora–Weller evaluation table; atomic masses from the AME2020 mass slice; thermal reactivity anchors from Bosch–Hale Table VII; ground-state records from IAEA LiveChart queries. Each file ships with the release and is hashed, so a result can be traced to the exact bytes it was computed from.
- Named equations and stated domains Each model contract identifies the equations it solves, the range over which its fit is defined and the mechanisms it does not include. Results outside a fit domain stay visible and are flagged rather than silently clipped.
- Portable experiment records Export a run as JSON, then import the file or paste its contents into any compatible laboratory. The release, laboratory, control set, numeric ranges and input checksum are all validated before any form changes, and the receiving laboratory recomputes the result rather than trusting stored numbers.
- Live three-dimensional geometry All seven routes render input-driven 3D. The GPU path uses procedural physically-based materials with local Three.js; a CPU perspective renderer projects the same geometry and instanced transforms when WebGL is unavailable. Camera, layer and playback controls are display state and never alter a numerical result.
- Complete structured exports Primary JSON exports carry inputs, model version, timestamp, outputs and stated limitations. Tabular CSV exports repeat the controlling inputs and provenance so a spreadsheet row remains interpretable on its own, and PNG accompanies them as a visualisation. Changing an input disables the previous export rather than letting a stale file look current.
- Deterministic and local Fixed seeds reproduce the same event sets and the same scenes. There is no remote runtime, no telemetry and no network dependency at run time: the pages, the datasets and the calculation kernels are all served from the folder you installed.
Method reference
Equations, data sources and validity domains
A single reference for the model contracts behind all seven laboratories: the rate integral, invariant-s kinematics, the mirror and toroidal field expressions, the segmentation pipeline, the conversion ledger and the numerical checks applied to each.
Research tools
Snapshot panels, transfers and diagnostics
Canonical input hashing, immutable result records, numerical diagnostics and explicit cross-laboratory transfers — the working surface for setting up a study, comparing configurations and carrying a result from one laboratory into the next.
Open to collaboration
Seeking research partners
HBF Network is looking for university, research institute and industry partners for a proposed 24-month programme on direct charged-particle energy conversion — model review, experimental capability, instrumentation or joint funding applications. The first milestone is a university-supervised, non-fusion demonstrator.
Hardip Bhesaniya · info@hbfnetwork.deAlso reachable at hardipbhesaniya03@gmail.com
Running the suite
HBF Scientific Lab is a static package. Upload the extracted folder to any web host that serves plain files, open index.html, and the laboratories load directly. A modern browser with JavaScript enabled is required; WebGL2 enables the GPU renderer, and the CPU fallback covers browsers without it.
If a laboratory does not open, the installation check verifies that every required file is present, served with the correct MIME type and matched to the expected release, and reports the specific file that is missing or misconfigured.