Jordan–Wigner transformation

E456584

The Jordan–Wigner transformation is a mathematical mapping in quantum many-body physics that converts spin operators into fermionic creation and annihilation operators, enabling the study of spin systems using fermionic methods.

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Predicate Object
instanceOf mapping
mathematical transformation
technique in quantum many-body physics
appliesTo finite one-dimensional lattices
infinite one-dimensional lattices
assumes spin-1/2 degrees of freedom on a lattice
category exact transformation
operator mapping
difficulty becomes highly nonlocal in higher dimensions
domain one-dimensional spin chains
ensures correct fermionic sign structure
field condensed matter physics
quantum information theory
quantum many-body physics
generalizationOf spin-fermion correspondence in one dimension
introduces nonlocal string operators
involves Pauli matrices σx, σy, σz NERFINISHED
fermionic annihilation operators
fermionic creation operators
language second quantization
limitation naturally defined in one spatial dimension
maps spin operators to fermionic operators
spin-1/2 operators to fermionic creation and annihilation operators
mathematicalForm string of σz operators multiplying local spin-flip operators
namedAfter Eugene Wigner NERFINISHED
Pascual Jordan NERFINISHED
preserves canonical anticommutation relations of fermions
property nonlocal in real space
relatedTo Bogoliubov transformation NERFINISHED
Bravyi–Kitaev transformation NERFINISHED
spin–fermion mapping
relates Pauli spin matrices to fermionic operators
requires an ordering of lattice sites
usedFor diagonalizing quadratic fermionic Hamiltonians
mapping qubit operators to fermionic operators in quantum algorithms
mapping spin Hamiltonians to quadratic fermionic Hamiltonians
mapping spin models to fermionic models
mapping the XY spin chain to fermions
mapping the transverse-field Ising model to free fermions
solving one-dimensional quantum spin chains
studying spin systems with fermionic methods
usedIn exact solution of the one-dimensional XY model
exact solution of the one-dimensional transverse-field Ising model
mapping spin models to Majorana fermions
quantum computing encodings of spin systems
quantum simulation of spin systems with fermionic platforms
studies of quantum phase transitions in spin chains
yearProposed 1928

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Pascual Jordan notableIdea Jordan–Wigner transformation