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Simulation of nuclear fusion

Nuclear fission Simulation — Description Simulation This interactive HTML5 + Canvas simulation visualizes the deuterium-tritium (D-T) nuclear fusion process — the most promising reaction for practical fusion power on Earth. It is divided into three clearly labeled tabs: The physics is accurate and fact-checked (D-T cross-section behavior, energy partitioning, ITER-like parameters, no chain reaction, stable […]

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Simulation of nuclear fission

Nuclear fission Simulation — Description Simulation Three tabs showing nuclear fission at increasing scale: Single Fission — a ²³⁵U nucleus absorbs a slow neutron, becomes excited [²³⁶U]*, then splits into ⁹²Kr + ¹⁴¹Ba + 3 neutrons + ~200 MeV. Watch the shockwave, fragment separation, and neutrons streaming out. Chain Reaction — each fission triggers more,

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Second Simulation of radioactive decay and half life

Radioactive Decay Simulation — Description Half-Life Simulation 64 radioactive atoms are displayed in a grid. Each atom glows and shakes while unstable. When it decays, it flashes and dims. The live graph on the right plots actual decay data against the theoretical curve N(t) = N₀ · e^(−λt) in real time. Choose from five AQA

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Simulation of alpha decay, beta decay and gamma decay

Simulation of Nuclear decay Simulation Overview Three tabs show alpha, beta, and gamma nuclear decay at the atomic level. Each opens with an unstable nucleus — protons (red) and neutrons (blue) packed together and shaking furiously inside a glowing boundary ring, surrounded by four bright electron shells. At the moment of decay the nucleus instantly

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Simulation of radioactive decay

Radioactive Decay Simulation — Description The simulation shows 48 unstable nuclei arranged in a grid, each decaying randomly over time following the exponential decay law N(t) = N₀ · e^(−λt). Students can select five AQA-relevant isotopes from the dropdown — Carbon-14, Polonium-210, Radium-226, Technetium-99m, and Sodium-22 — each with its correct decay type (α, β⁻,

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