Experiments and simulations show that in dipole-driven linear Paul traps, endcap boundaries create radial-to-axial coupling that allows axial confinement at zero or negative endcap voltages and splits the radial secular frequencies; a tapered electrode design reduces this coupling.
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Field Deviations in Dipole-Driven Linear Paul Traps: Effects of Endcap Boundaries and their Minimization
Experiments and simulations show that in dipole-driven linear Paul traps, endcap boundaries create radial-to-axial coupling that allows axial confinement at zero or negative endcap voltages and splits the radial secular frequencies; a tapered electrode design reduces this coupling.