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THE BAND STRUCTURE OF DIAMOND

Soviet Physics Uspekhi, 1971
Table of Contents I. Introduction 180 II. The Structure of Diamond 180 III. Formation of the Energy Bands 181 IV. The Brillouin Zone 182 V. Quantitative Calculations of the Energy Bands 183 VI. Investigation of the Band Structure by Optical Methods 187 VII. Fundamental Physical Properties 188 VIII. Semiconducting Diamonds 190 IX.
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The band structure of polyferrocenylene

Physics Letters A, 1983
The 1D polyferrocenylene system is employed for an analysis of “hybridization” effects in the HF bands of complex organometal1ic solids. An important physical consequence of this type of hybridization is a strong k-dependence in the character of the CO microstates (i.e. correlation between localized metal-centered and delocalized ligand basis functions)
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Experimental band structure of lead

Physical Review B, 1990
By using angle-resolved photoemission with synchrotron radiation, we have determined accurate energy-versus-momentum dispersion relations along symmetry lines \ensuremath{\Gamma}X and \ensuremath{\Gamma}KX for lead crystals. These directions are mapped out by recording normal-emission photoelectron spectra at low temperatures (20 K) from Pb(100) and Pb(
, Jézéquel, , Pollini
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Experimental Band Structure of Na

Physical Review Letters, 1985
Normal-emission angle-resolved photoemission data from Na(110) are presented. Two discrepancies between these data and the predictions of free-electron theory are observed. First, the occupied-band width is 2.5 eV, while theory predicts 3.2 eV. Second, the bands near the Fermi level appear to have been severely distorted, as could be produced by a ...
, Jensen, , Plummer
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Band Structure of Solid Argon

Physical Review, 1961
The orthogonalized plane wave method, in a perturbation approximation, is used to compute the lowest lying conduction states in (fcc) solid argon at the symmetry points GAMMA , X, L, and K. The 3s and 3p valence bands are treated by tight-binding theory.
Knox, R. S., Bassani, F.
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Quasiparticle Band Structure of CdS

Physical Review Letters, 1995
Quasiparticle band structure calculations which include the most important cationic core states in the $\mathrm{GW}$ approximation of the self-energy operator are reported for a prototype II-VI semiconductor. The most salient feature of our results for cubic CdS is the finding that the complete cationic $N$ shell needs to be included in the ...
, Rohlfing, , Krüger, , Pollmann
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The topology of electronic band structures

Nature Materials, 2020
The study of topology as it relates to physical systems has rapidly accelerated during the past decade. Critical to the realization of new topological phases is an understanding of the materials that exhibit them and precise control of the materials chemistry.
Prineha Narang   +2 more
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Band structure of semiconductor alloys

Physical Review B, 1988
The band structures of several semiconductor alloys have been calculated by a method which takes into account the reduced local symmetry in the alloys. The alloy band structure is found from the weighted average of the band structures calculated for crystals formed from the different nearest-neighbor configurations that can occur in the alloys. In this
, Ling, , Miller
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Banded structure of drifting macroalgae

Marine Pollution Bulletin, 2009
A massive bloom of macroalgae occurred in the western Yellow Sea at the end of May, 2008, and lasted for nearly 2 months. The surface-drifting macroalgae was observed to accumulate in a pattern dominated by linear bands. The maximum length of individual algal bands exceeded 10 km and the distance between neighboring bands ranged from hundreds of meters
Fangli, Qiao   +3 more
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Energy Band Structure of Copper

Physical Review, 1963
The $E(k)$ values were computed for the equivalent of 2048 points in the Brillouin zone and for energies ranging from the bottom of the $4s$-band to approximately 2 Ry above the Fermi energy. From these calculations the Fermi energy, Fermi surface, and density of states were determined.
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