This paper presents an architecture for the extraction of visual primitives on chip: energy, orientation, disparity, and optical flow.
If a system containing free radicals is placed in a magnetic field and exposed to electromagnetic radiation (e.g., in the region of very short radio waves), molecules with the lower energy orientation absorb radiation of a frequency corresponding to an energy just sufficient to flip the odd electron into its higher energy state.
While the magnitude of the EW effect at LEO depends on a multitude of factors such as trapped proton energy, orientation of the spacecraft along the velocity vector and altitude of the spacecraft, the paper draws quantitative conclusions on the combined effect of proton pitch angle and EW anomaly.
The sensitivity of the technique is dictated by the time and route taken for excited nuclei to dissipate their excess energy and revert to low-energy orientations, lined up with the applied magnetic field.
Voids and boundaries throughout the film thickness have often been observed in columnar TiN films, and their formation has been attributed to low mobility of the impinging atoms and to preferential trapping of diffusing surface atoms at low-energy orientations of already nucleated grains (atomic shadowing effect) during film growth [29, 39, 40].
The latter is a higher-energy orientation, called the upper spin state.
As the magnets flipped to find their lowest-energy orientation, they would converge on the problem's solution.
But when more energy is added to the system in the form of radio waves, for example the nuclei "flip" into a different, higher-energy orientation.
Upon tensile loading, the nanowires can revert back to the original high-energy orientation or phase without introducing any defects.
RosettaDock [ 20] constructs an energy function using van der Waals energies, orientation-dependent hydrogen bonding, implicit Gaussian solvation, side-chain rotamer probabilities and a low-weighted electrostatics energy.
