The interplay between charge, spin and orbital degrees of freedom in transition metal oxides has been a matter of much interest in recent years.
Temperature dependent changes in electronic distribution can best be detected by diffraction methods in crystals having all atoms of low atomic number.
Dark field imaging of charge density wave superlattice reflections in alpha-U by transmission electron microscopy reveals a multiple domain structure with a single wave vector q in each domain.
In order to study the physical properties of K(3)Cu(8)S(6), we have carefully defined the synthetic conditions for KCu (4)S(3), K(3)Cu(8)S(6) and KCu(3)S(2).
This paper describes a numerical determination of the distribution of charge in a one-dimensional model of a buried-channel chargecoupled device (CCD).
We briefly report momentum-resolved charge excitations in a cuprate antiferromagnetic insulator in the intermediate regimes of momentum transfers using high energy resonant X-ray scattering near th
Some general arguments affecting the likelihood that charge fluctuations can promote superconductivity are discussed, and a calculational framework is presented.
Although the unit of charge in nature is a fundamental constant, the charge of individual quasiparticles in some low-dimensional systems may be fractionalized.
We use interlayer tunneling to study bilayer two-dimensional electron systems at nu(T)=1 over a wide range of charge-density imbalance Delta nu=nu(1)-nu(2) between the two layers.
We describe a new type of transistor based on hot-electron transfer between two conducting layers in an AlGaAs/GaAs heterojunction structure. One of these layers is the FET channel.
