24. T. Honma & P.-H. Hor;
乬Unified Electronic Phase Diagram for
Hole-Doped High-Tc Cuprates乭,
Physical Review B 77, 184520 (2008) (arXiv:0801.1537)
Citing
Articles ( I checked.) ;
17. G. Sordi, K. Haule & A. -M. S. Tremblay,
乬Mott physics and first-order transition between two metals in the
normal state phase diagram of the two-dimensional Hubbard model乭
arXib1102.0463S
16.
Tatsuya Honma & Pei Herng Hor
乬Universal scaling
of the c-axis dc
conductivity for underdoped high-temperature cuprate superconductors乭
Solid
State Communications 150, 2314 (2010).
15.
Tatsuya Honma & Pei Herng Hor
乬Comparison of the hole concentration determined by transport
measurement for the hole-doped cuprate superconductors乭
Physica C
470, 191 (2010)
14. Eran
Amit & Amit Keren;
乬Critical-doping universality for cuprate superconductors: Oxygen
nuclear-magnetic-resonance investigation of
Ca(x)La(1-x)Ba(1.75-x)La(0.25+x)Cu(3)O(y)乭
eprint
arXiv:1011.0818A
13.
Sumilan Banerjee, T. V. Ramakrishnan, Chandan Dasgupta;
乬Ginzburg-Landau Approach to High-Temperature Superconductivity in
the Cuprates : I. Basics乭
eprint
arXiv:1007.3287B
12. Michael R. Peterson & B. Sriram Shastry,
乬The Kelvin Formula for Thermopower乭
Physical Review B 82, 195105 (2010). eprint arXiv:1001.3423
11. N.
Kristoffel & P. Rubin,
乬Nodal superconductivity and antinodal pseudogap in cuprate superconductors乭
Physics Letters A 374, 70, (2009).
10. J. Ashkenazi
乬A theory
for the high-Tc cuprtes: anomalous normal-state and spectroscopic, phase
diagram, and pairing乭
eprint arXiv:0912.4735
09. Z. Wu & P.H. Hor
乬Growth and hole density control through equilibrium oxygen annealing of optimally doped Y1‑xCaxBa2Cu3O7‑兟 single crystals乭
Supercond. Sci. & Tech. 22, 105012 (2009).
08. P. Phillips, T-P. Choy, R. G. Leigh
乬Mottness in high-temperature copper-oxide superconductors乭
Reports on Progress in Physics 72, 036501 (2009).
07.R. McQueeney et
al.
乬Anisotropic Three-Dimensional Magnetism in CaFe2As2
Phys. Rev. Lett. 101, 227205 (2008)
06. S.
Chakraborty, D. Galanakis, P. Phillips
乬Emergence of Particle-Hole Symmetry near Optimal Doping in High-Temperature Copper Oxide Superconductors乭
Physical Review B 82, 214503 (2010). arXiv:0807.2854).
05. J. Ashkenazi
乬A unified theory for the
cuprates, iron-based and similar superconducting systems: non-Fermi-liquid to Fermi-liquid
crossover, low-energy and waterfall anomalies乭
Journal of Superconductivity and
Novel Magnetism 22,
3 (2009) (2008arXiv0811.4561)
04. X. Xu, H. Hu, T. Yamada, H. Chen, and Y. Wang
乬Lifetime distribution of spontaneous
emission from line antennas in two-dimensional quasi-periodic photonic crystals乭
Journal of Physics: Condensed Matter 20, 125210 (2008)
03. J. Ashkenazi
乬A unified theory for the
cuprates, iron-based and similar superconducting systems: application for spin
and charge excitations in the hole-doped cuprates乭
(2008arXiv0809.4237)
02. R. J. McQueeney et al.,
乬Anisotropic
three-dimensional magnetism in CaFe2As2乭
Phys. Rev. Lett. 101, 227205 (2008)丂丂丂
(2008arXiv0809.1410)
01. J. A. Wilson,
乬Evolution
with hole doping of the electronic excitation spectrum in the cuprate
superconductors乭
Journal
of Physics: Condensed Matter 20,
385210 (2008) (2008arXiv0804.3045).
Last updated : Nov. 06/10