Non-Abelian Holonomy of BCS and SDW Quasi-particles
arXiv:cond-mat/9805404 · doi:10.1006/aphy.1998.5866
Abstract
In this work we investigate properties of fermions in the SO(5) theory of high Tc superconductivity. We show that the adiabatic time evolution of a SO(5) superspin vector leads to a non-Abelian SU(2) holonomy of the SO(5) spinor states. Physically, this non-trivial holonomy arises from the non-zero overlap between the SDW and BCS quasi-particle states. While the usual Berry's phase of a SO(3) spinor is described by a Dirac magnetic monopole at the degeneracy point, the non-Abelian holonomy of a SO(5) spinor is described by a Yang monopole at the degeneracy point, and is deeply related to the existence of the second Hopf map from to . We conclude this work by extending the bosonic SO(5) nonlinear sigma model to include the fermionic states around the gap nodes as 4 component Dirac fermions coupled to SU(2) gauge fields in 2+1 dimensions.
45 pages, 5 figures, typos corrected, references added
References in corpus (5)
- An SU(2) Formulation of the t-J model: Application to Underdoped Cuprates
- Proximity Effect and Josephson Coupling in the SO(5) Theory of High-Tc Superconductivity
- Microscopic Electron Models with Exact SO(5) Symmetry
- Finite-Size Studies on the SO(5) Symmetry of the Hubbard Model
- Search for the πResonance in Two Particle Tunneling Experiments of YBCO Superconductors
Cited by in corpus (32)
- Topological Field Theory of Time-Reversal Invariant Insulators
- A Four Dimensional Generalization of the Quantum Hall Effect
- SU(2) Non-Abelian Holonomy and Dissipationless Spin Current in Semiconductors
- SO(5) Theory of Antiferromagnetism and Superconductivity
- Effective field theory description of the higher dimensional quantum Hall liquid
- Non-commutative geometry of 4-dimensional quantum Hall droplet
- Higher Dimensional Quantum Hall Effect as A-Class Topological Insulator
- The Renormalization Group Studies on Four Fermion Interaction Instabilities on Algebraic Spin Liquids
- Symmetry protected Z2-quantization and quaternionic Berry connection with Kramers degeneracy
- Fractionalization patterns in strongly correlated electron systems: Spin-charge separation and beyond
- Six-dimensional space-time from quaternionic quantum mechanics
- The Geometric Phase in Supersymmetric Quantum Mechanics
- The Berry Phase of D0-Branes
- Holonomic Quantum Computing Based on the Stark Effect
- All-electric qubit control in heavy hole quantum dots via non-Abelian geometric phases
- Nonabelian gauge field and dual description of fuzzy sphere
- Non-abelian Berry's phase and Chern numbers in higher spin pairing condensates
- <A^2> Condensate, Bianchi Identities and Chromomagnetic Fields Degeneracy in SU(2) YM Theory
- Instantons, Twistors, and Emergent Gravity
- SU(2) Gluodynamics and HP1 sigma-model embedding: Scaling, Topology and Confinement
- Mott insulating phases and quantum phase transitions of interacting spin-3/2 fermionic cold atoms in optical lattices at half filling
- The Geometric Phase and Gravitational Precession of D-Branes
- Geometrical, topological and dynamical description of interacting spin- under long-range Ising model and their interplay with quantum entanglement
- Confining string and its widening in HP1 embedding approach
- Complementarity between quantum entanglement, geometrical and dynamical appearances in N spin- system under all-range Ising model
- Charge conservation protected topological phases
- Lattice Gauge Fields Topology Uncovered by Quaternionic sigma-model Embedding
- Emergent gauge fields and their nonperturbative effects in correlated electrons
- Nonlinear orbital response across topological phase transition in centrosymmetric materials
- Tunneling D0-branes
- Topological structures of adiabatic phase for multi-level quantum systems
- Geometry and quantum brachistochrone analysis of multiple entangled spin-1/2 particles under all-range Ising interaction