Topological Qubits & Majorana Zero Modes

Induces a topological phase transition where the bulk of the nanowire is insulating to quasiparticles but the ends host localized zero modes.

A single qubit is split into two spatially separated Majorana modes; local electrical or magnetic noise cannot flip the non-local state.

Stringent experimental measurements confirming the closing and re-opening of the superconducting energy gap.

Braiding gates have zero calibration drift; small timing errors or voltage wobbles do not alter the topological braid result.

Swaps Majoranas physically through semiconductor T-junctions or virtually via projective parity measurements.

Braiding provides Clifford gates; universal quantum computation is completed by injecting distilled magic states for non-Clifford T-gates.

Integrates digital CMOS control logic directly with topological nanowire arrays at cryogenic temperatures.

Because each topological qubit is hardware-protected, full fault tolerance requires 100x fewer physical qubits than surface code systems.

Atomically pristine molecular-beam epitaxy (MBE) crystal growth eliminates interfacial defects and unwanted bound states.