Related papers: Multichannel processes in relativistic Coulomb exc…
The paper has been temporarily withdrawn.
This paper has been withdrawn by the authors because the results obtained have been reported earlier by other authors.
We derive a general expression for the multipole expansion of the electro-magnetic interaction in relativistic heavy-ion collisions, which can be employed in higher-order dynamical calculations of Coulomb excitation. The interaction has…
This paper has been withdrawn due to that the same conclusion has been proposed before.
This paper was withdrawn because subsequent measurements produced results not always consistent with the ones presented in the paper.
This paper has been withdrawn by the author due to a misunderstanding.
This paper has been withdrawn by the author.
This paper is withdrawn. See quant-ph/9806031 for a discussion.
This paper has been withdrawn by the author, due to the insecurity against attacks received in quant-ph/0605027v5.
The paper has been withdrawn because of a more complete analysis of the relativistic fluid including the quantization reported in arxiv:0801.3032 [hep-th].
This paper has been withdrawn.
This paper has been withdrawn by the author, due to a crucial error in the proof of Lemma 3.1.
A quantum kinetic theory is used to compute excitation induced dephasing in semiconductor quantum dots due to the Coulomb interaction with a continuum of states, such as a quantum well or a wetting layer. It is shown that a frequency…
This paper has been withdrawn by the authors because the authors excluded the paper from electronic proceedings of the conference.
Straight line trajectories are commonly used in semi-classical calculations of the first-order Coulomb excitation cross section at intermediate energies, and simple corrections are often made for the distortion of the trajectories that is…
This paper is withdrawn because the results in the paper are included in a paper to be published in Mathematical and Computer Modelling.
This paper has been withdrawn by the author due to errors.
We give here a field-theoretical derivation of the Hamiltonian of the non-relativistic quantum electrodynamics in the Coulomb gauge using the Lagrange formalism. It leads to the same result as the usual derivation, where one just replaces…
This paper has been withdrawn due to crucial errors.
This paper has been withdrawn by the author.