Within the framework of the Charge Density Wave Quantum Critical Point (CDW-QCP] scenario for high-Tc superconductors (HTCS) we introduce a model for tight-binding electrons coupled to quasi-critical fluctuations. In the normal state our model reproduces features the Fermi Surface (FS) observed in ARPES measurements on optimality doped Bi2212, such as the anisotropic suppression of spectral weight around the M points of the Brillouin zone. The spectral density is characterized by a transfer of spectral weight from the main quasiparticle peak to dispersing shadow peaks which originate branches of a shadow FS. In the superconducting state our model reproduces the d-wave symmetry of the gap parameter, which results from a balance between small...
Explicit and implicit experimental evidence for charge density wave (CDW) presence in high-Tc superc...
Dahm T, Manske D, Tewordt L. Effect of normal-state pseudogap on physical quantities in Hubbard mode...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Physics, May, 2020Cataloged fro...
Within the framework of the Charge Density Wave Quantum Critical Point (CDW-QCP] scenario for high-T...
We study the single-particle spectral properties of electrons coupled to quasicritical charge and sp...
We study the single-particle spectral properties of electrons coupled to quasicritical charge and sp...
We study the single-particle spectral properties of a model for coexisting antiferromagnetic and inc...
We describe the spectral properties of underdoped cuprates as resulting from a momentum-dependent ps...
The spectral energy gap is an important signature that defines states of quantum matter: insulators,...
We describe here a minimal theory of tight-binding electrons moving on the square planar Cu lattice ...
We present a general scenario for high-temperature superconducting cuprates, based on the presence o...
16 pages, 14 figuresInternational audienceWe address the timely issue of the presence of charge orde...
A two-orbital t-J model over the square lattice that describes low-energy electronic excitations in ...
An understanding of the missing antinodal electronic excitations in the pseudogap state is essential...
We present a way to quantum-disorder a pair density wave and propose it to be a candidate of the eff...
Explicit and implicit experimental evidence for charge density wave (CDW) presence in high-Tc superc...
Dahm T, Manske D, Tewordt L. Effect of normal-state pseudogap on physical quantities in Hubbard mode...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Physics, May, 2020Cataloged fro...
Within the framework of the Charge Density Wave Quantum Critical Point (CDW-QCP] scenario for high-T...
We study the single-particle spectral properties of electrons coupled to quasicritical charge and sp...
We study the single-particle spectral properties of electrons coupled to quasicritical charge and sp...
We study the single-particle spectral properties of a model for coexisting antiferromagnetic and inc...
We describe the spectral properties of underdoped cuprates as resulting from a momentum-dependent ps...
The spectral energy gap is an important signature that defines states of quantum matter: insulators,...
We describe here a minimal theory of tight-binding electrons moving on the square planar Cu lattice ...
We present a general scenario for high-temperature superconducting cuprates, based on the presence o...
16 pages, 14 figuresInternational audienceWe address the timely issue of the presence of charge orde...
A two-orbital t-J model over the square lattice that describes low-energy electronic excitations in ...
An understanding of the missing antinodal electronic excitations in the pseudogap state is essential...
We present a way to quantum-disorder a pair density wave and propose it to be a candidate of the eff...
Explicit and implicit experimental evidence for charge density wave (CDW) presence in high-Tc superc...
Dahm T, Manske D, Tewordt L. Effect of normal-state pseudogap on physical quantities in Hubbard mode...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Physics, May, 2020Cataloged fro...