Braiding of Majorana zero modes provides a promising platform for quantum information processing, which is topologically protected against errors. Strictly speaking, however, the scheme relies on infinite braiding times as it utilizes the adiabatic limit. Here we show how to minimize nonadiabatic errors for finite braiding times by finding an optimal protocol for the Majorana movement. Interestingly, these protocols are characterized by sharp transitions between Majorana motion at maximal and minimal velocities. We find that these so-called bang-bang protocols can minimize the nonadiabatic transitions of the system by orders of magnitude in comparison with naive protocols
Qubits built out of Majorana zero modes (MZMs) constitute the primary path towards topologically pro...
Topological quantum computing seeks to store and manipulate information in a protected manner using ...
We propose a transport probe scheme to detect the nonadiabatic transition caused by Majornana moving...
Braiding of Majorana zero modes provides a promising platform for quantum information processing, wh...
One-dimensional topological superconductors are known to host Majorana zero modes at domain walls t...
One-dimensional topological superconductors are known to host Majorana zero modes at domain walls te...
π/8 phase gates (magic gates or T gates) are crucial to augment topological systems based on Majora...
Majorana-based quantum computation seeks to encode information nonlocally in pairs of Majorana zero ...
Majorana zero modes are a promising platform for topologically protected quantum information process...
Topological quantum computing is based on the notion of braiding non-Abelian anyons, such as Majoran...
Topological quantum information processing relies on adiabatic braiding of nonabelian quasiparticles...
We study the dynamics of Majorana zero modes that are shuttled via local tuning of the electrochemic...
We present a measurement-based scheme for performing braiding operations on Majorana zero modes in m...
Color-code quantum computation seamlessly combines Majorana-based hardware with topological error co...
Majorana zero modes are emergent zero-energy quasiparticle excitations in certain superconducting s...
Qubits built out of Majorana zero modes (MZMs) constitute the primary path towards topologically pro...
Topological quantum computing seeks to store and manipulate information in a protected manner using ...
We propose a transport probe scheme to detect the nonadiabatic transition caused by Majornana moving...
Braiding of Majorana zero modes provides a promising platform for quantum information processing, wh...
One-dimensional topological superconductors are known to host Majorana zero modes at domain walls t...
One-dimensional topological superconductors are known to host Majorana zero modes at domain walls te...
π/8 phase gates (magic gates or T gates) are crucial to augment topological systems based on Majora...
Majorana-based quantum computation seeks to encode information nonlocally in pairs of Majorana zero ...
Majorana zero modes are a promising platform for topologically protected quantum information process...
Topological quantum computing is based on the notion of braiding non-Abelian anyons, such as Majoran...
Topological quantum information processing relies on adiabatic braiding of nonabelian quasiparticles...
We study the dynamics of Majorana zero modes that are shuttled via local tuning of the electrochemic...
We present a measurement-based scheme for performing braiding operations on Majorana zero modes in m...
Color-code quantum computation seamlessly combines Majorana-based hardware with topological error co...
Majorana zero modes are emergent zero-energy quasiparticle excitations in certain superconducting s...
Qubits built out of Majorana zero modes (MZMs) constitute the primary path towards topologically pro...
Topological quantum computing seeks to store and manipulate information in a protected manner using ...
We propose a transport probe scheme to detect the nonadiabatic transition caused by Majornana moving...