Simulation of atom trajectories in the original Stern-Gerlach experiment
Faraz Mostafaeipour, S. Suleyman Kahraman, Kelvin Titimbo, Yixuan Tan, and Lihong V. Wang

TL;DR
This paper models the Stern-Gerlach experiment's magnetic field using finite-element analysis and simulates atomic trajectories with Monte Carlo methods, accurately reproducing the experiment's quantized end-pattern.
Contribution
It provides the most precise finite-element model of the Stern-Gerlach magnetic field and simulates atom trajectories to match historical experimental results.
Findings
Accurate magnetic field modeling with finite-element method.
Simulation reproduces the quantized end-pattern.
Matches historically reported experimental values.
Abstract
Following a comprehensive analysis of the historical literature, we model the geometry of the SternGerlach experiment to numerically calculate the magnetic field using the finite-element method. Using this calculated field and Monte Carlo methods, the atomic translational dynamics are simulated to produce the well-known quantized end-pattern with matching dimensions. The finite-element method used provides the most accurate description of the SternGerlach magnetic field and end-pattern in the literature, matching the historically reported values and figures.
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Taxonomy
TopicsCold Atom Physics and Bose-Einstein Condensates · Atomic and Molecular Physics · Advanced Chemical Physics Studies
