Physics telemetry
Physics events print with a [physics] prefix. While particles are active, the terminal reports particle counts, tunnelling, annihilation, and decay totals once per second.
Python-first simulation platform
There is still no separate Quantum Lab mode. The build separates visualization from headless SI-unit kernels spanning mechanics, gravity, relativity, electromagnetism/Maxwell, optics, thermodynamics, fluids, atomic/quantum physics including numerical Schrödinger evolution, nuclear decay, material transport, and replaceable energy-dependent cross-section data.
No Quantum Mode: the `Q` toggle and Quantum Lab overlay are gone.
Research architecture: the visual sandbox is separated from a testable SI-unit kernel. Built-in effective material values can be replaced with specimen-specific laboratory data.
Physics events print with a [physics] prefix. While particles are active, the terminal reports particle counts, tunnelling, annihilation, and decay totals once per second.
Particle wave packets continue to spread over time, and M measures a targeted particle or entangled pair without requiring a special mode.
Tested SI reference laws now cover Newtonian gravity, special relativity, weak-field GR benchmarks, Coulomb/Lorentz forces, 1-D Maxwell FDTD, optics, thermodynamics, fluids, atomic/quantum relations, and nuclear decay.
Electron/positron material-boundary transmission now uses the exact 1-D rectangular-barrier quantum solution in SI units rather than the old block-category WKB heuristic.
Active air/material cells track lattice and electronic temperature, pressure, ionization, absorbed energy, net charge, and scattering state.
The headless benchmark can load energy-dependent cross-section CSV data and log-log interpolate it for a selected material/particle pair.
Built-in terrain properties are effective approximations. Publication or experimental use requires specimen-specific inputs, convergence studies, and validation against authoritative data or experiments.
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