Konopka, Sebastian Johann Hermann (2016): On the construction of classical superstring field theories, Unbekannt. Dissertation, LMU München: Fakultät für Physik

a series of laser-nanosphere interaction experiments [42, 48, 67, 68, 75, 76, 114], in particu- lar, the model unraveled a novel acceleration mechanism from dielectric nanospheres

From the quantum theory point of view any bound state resolved into a finite number of constituents should sense deviations from the classical value due to interactions between

Making this journey from the classical theory of General Relativity over semiclassical considerations to a picture where quantum constituents form spacetime in an emergent way we

We present a reaction field (RF) method which accurately solves the Poisson equation for proteins embedded in dielectric solvent continua at a computational effort comparable to that

With the additional information Alice and Bob get from the decoy state analysis about the photon number statistics for all pulse classes, they can calculate the secure key

Hence we obtain two different descriptions of a stack of N Dp-branes: one in terms of the gauge theory ”living” on their world-volume and another in terms of the classical

In the simulations, the picture looks totally different: In the 2 component scheme, the system consists only of snow and rain with signatures of heavy rain in the region of

Thus, in order to extract the interesting momentum order from the string matrix and thus from those triple hypergeometric function a powerful mathematical formalism including