Abstract

Quadrupole ion traps are modern and versatile research tools used in mass spectrometers, in atomic frequency and time standards, in trapped ion quantum computing research, and for trapping anti-hydrogen ions at CERN. Despite their educational potential, quadrupole ion traps are seldom introduced into the physics classroom not least because commercial quadrupole ion traps appropriate for classroom use are expensive and difficult to set up. We present an open hardware 3D-printable quadrupole ion trap suitable for the classroom, which is capable of trapping lycopodium spores. We also provide student worksheets developed in an iterative design process, which can guide students while discovering particle traps. The quadrupole ion trap operates using a 3 kV 50 Hz alternating current power supply and uses an astable multivibrator circuit including high luminosity LEDs to illuminate the spores, using the stroboscopic effect to exhibit their movement. The trap can be used in teaching laboratories to enhance high school and university students’ understanding of electric fields and their applications.

Highlights

  • Quadrupole ion traps are modern and versatile research tools used in mass spectrometers, in atomic ­frequency and time standards, in trapped ion quantum computing research, and for trapping ­anti-hydrogen ions at CERN

  • We present an open hardware 3D-printable q­ uadrupole ion trap as a hands-on particle physics experiment for high school and undergraduate students to demonstrate ­macroscopic charged particle trapping

  • During the test in CERN’s S’Cool LAB facility, high school students were consistently able to operate the trap and perform experiments within a 90-minute period when guided by suitable worksheets and tutors

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Summary

Introduction

Quadrupole ion traps are modern and versatile research tools used in mass spectrometers, in atomic ­frequency and time standards, in trapped ion quantum computing research, and for trapping ­anti-hydrogen ions at CERN. The quadrupole ion trap operates using a 3 kV 50 Hz alternating current power supply and uses an ­astable multivibrator circuit including high luminosity LEDs to illuminate the spores, using the ­stroboscopic effect to exhibit their movement. We present an open hardware 3D-printable q­ uadrupole ion trap as a hands-on particle physics experiment for high school and undergraduate students to demonstrate ­macroscopic charged particle trapping.

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