Planar Ion Trap Geometry for Microfabrication
arXiv:quant-ph/0401047 · doi:10.1007/s00340-004-1414-9
Abstract
We describe a novel high aspect ratio radiofrequency linear ion trap geometry that is amenable to modern microfabrication techniques. The ion trap electrode structure consists of a pair of stacked conducting cantilevers resulting in confining fields that take the form of fringe fields from parallel plate capacitors. The confining potentials are modeled both analytically and numerically. This ion trap geometry may form the basis for large scale quantum computers or parallel quadrupole mass spectrometers. PACS: 39.25.+k, 03.67.Lx, 07.75.+h, 07.10+Cm
14 pages, 16 figures
Cited by in corpus (28)
- Ion-trap measurements of electric-field noise near surfaces
- Entanglement and Tunable Spin-Spin Couplings Between Trapped Ions Using Multiple Transverse Modes
- Ion Trap in a Semiconductor Chip
- Radiofrequency multipole traps: Tools for spectroscopy and dynamics of cold molecular ions
- Ion trap transducers for quantum electromechanical oscillators
- Experimental investigation of planar ion traps
- Design, Fabrication, and Experimental Demonstration of Junction Surface Ion Traps
- Engineering of Microfabricated Ion Traps and Integration of Advanced On-Chip Features
- Linear Paul trap design for an optical clock with Coulomb crystals
- A high-precision rf trap with minimized micromotion for an In+ multiple-ion clock
- Optimization of segmented linear Paul traps and transport of stored particles
- Microfabricated Ion Traps
- On the application of radio frequency voltages to ion traps via helical resonators
- An ultra-narrow line width levitated nano-oscillator for testing dissipative wavefunction collapse
- Electron impact ionization loading of a surface electrode ion trap
- Versatile ytterbium ion trap experiment for operation of scalable ion trap chips with motional heating and transition frequency measurements
- Ion trap architectures and new directions
- High fidelity simulations of ion trajectories in miniature ion traps using the boundary-element method
- Characterisation of a charged particle levitated nano-oscillator
- Ion-photon entanglement and quantum frequency conversion with trapped Ba ions
- Fabrication of a planar micro Penning trap and numerical investigations of versatile ion positioning protocols
- Vacuum levitation and motion control on chip
- Quantum Logic Between Distant Trapped Ions
- Experimental Realization of Entangled Coherent States in Two-dimensional Harmonic Oscillators of a Trapped Ion
- Super-resolution imaging of a low frequency levitated oscillator
- Operation of a Microfabricated Planar Ion-Trap for Studies of a Yb-Rb Hybrid Quantum System
- Experimental demonstration of a surface-electrode multipole ion trap
- Quench Dynamics of Two Coupled Ionic Zig-Zag Chains