Theory of Dynamic Stripe Induced Superconductivity

Abstract

Since the recently reported giant isotope effect on T* [1] could be consistently explained within an anharmonic spin-charge-phonon interaction model, we consider here the role played by stripe formation on the superconducting properties within the same model. This is a two-component scenario and we recast its basic elements into a BCS effective Hamiltonian. We find that the stripe formation is vital to high-Tc superconductivity since it provides the glue between the two components to enhance Tc to the unexpectedly large values observed experimentally.

7 pages, 2 figures

References in corpus (2)

• The gap amplification at a "shape resonance" in a superlattice of quantum stripes: a mechanism for high Tc
• On the Possibility of New High Tc Superconductors by Producing metal Heterostructures as in the Cuprate Perovskites

Cited by in corpus (9)

• Bond-Stretching-Phonon Anomalies in Stripe-Ordered La(1.69)Sr(0.31)NiO(4)
• Unconventional isotope effects in the high-temperature cuprate superconductors
• Local Lattice Instability and Superconductivity in La${}_{1.85}$Sr${}_{0.15}$Cu${}_{1-x}$M${}_x$O${}_4$ (M=Mn, Ni, and Co)
• Oxygen-isotope effect on the in-plane penetration depth in cuprate superconductors
• The Phase Diagram of High-Tc Superconductors in the Presence of Dynamic Stripes
• Vibrational edge modes in intrinsically heterogeneous doped transition metal oxides
• Structural compliance, misfit strain and stripe nanostructures in cuprate superconductors
• La${}_{2-x}$Ba${}_x$CuO${}_4$ as a superconducting Rosetta Stone
• Dynamical two electron states in a Hubbard-Davydov model