Codex Futura

Volume II · Quantum & Information Mechanics

017

Majorana Braiding Computation

Non-Abelian Majorana zero mode braiding in topological superconductor arrays for fault-tolerant quantum logic gates.

arXiv:quant-ph (QUANTUM PHYSICS ARCHIVES) 53, 174001 (2041)arXiv PreprintarXiv Open Archive

Formal Research Monograph · Lead Author: Dr. Sophia Sterling

Majorana Braiding Computation: Formal Research Paper

Lead Author: Dr. Sophia Sterling — Principal Investigator, Cambridge Cavendish Laboratory

Full 2-column research paper published in arXiv:quant-ph (QUANTUM PHYSICS ARCHIVES) featuring complete tensor derivations, field equations, 3D simulation figures, vector telemetry, and peer-reviewed citations.

Blueprint visualization for Majorana Braiding Computation
BlueprintBlueprint

Blueprint schema and structural layout.

Technical visualization for Majorana Braiding Computation
TechnicalTechnical

Technical framework and mathematical breakdown.

The Framework

Topological Anyon Exchange Operator

Majorana zero modes are exotic quasiparticles that act as their own antiparticles and obey non-Abelian exchange statistics. Majorana Braiding Computation physically moves these bound states around each other in two-dimensional networks. Because the operations depend strictly on the knot topology of their paths, quantum logic gates are inherently protected against local environment decoherence.

01

Topological Superconductor Nanowires

Semiconductor-superconductor hybrid nanowires hosting localized Majorana bound states at wire ends.

02

T-Junction Network Networks

Nanoscale crossbar networks facilitating physical spatial exchange of Majorana zero modes.

03

Non-Abelian Clifford Gate Synthesis

Constructing single-qubit and multi-qubit Clifford operations exclusively through topologically protected braiding sequences.

04

Interferometric Readout Arrays

Parity measurement loops probing quantum state topology without dephasing stored topological qubits.

  • majorana zero modes
  • topological quantum computing
  • quantum gates
  • superconductivity