Now they’re thick as thieves - and also, Stilyewn is missing an eye. When it went off, I chose for Stilyewn to dive in the way and save Rosellia. When they arrived, the figure from Stilyewn’s past was nowhere to be found. Naturally, Stilyewn and Rosellia jawed at each other for most of the trek. One of my characters, a mage named Stilyewn, recently received an invitation to reunite with an old frenemy, and I had him take a bickering buddy from my party, Rosellia, along for the ride. Sometimes, this might mean they acquire a new item or take their friendship (or rivalry) with another hero to a new level. During these events - which can run the gamut from dark rituals in the dead of night to chance romantic encounters with mysterious water sprites - individual characters are often faced with choices, which you, the player, get to make. It may not be viable but watching your characters live, evolve, and change is a great time.
Scanning quantum gas atom chip microscopy introduces three very important features to the toolbox of high-resolution scanning microscopy of strongly correlated or topological materials: simultaneous detection of magnetic and electric fields (down to the sub-single electron charge level no invasive large magnetic fields or gradients simultaneous micro- and macroscopic spatial resolution DC to MHz detection bandwidth freedom from 1/f flicker noise at low frequencies and, perhaps most importantly, the complete decoupling of probe and sample temperatures.While your characters move between locations, “Wildermyth” sporadically throws storybook-like events at them, replete with gorgeous prose and lovingly crafted visuals. That’s the beauty in transformations, they are a powerful story element, and at it’s core, Wildermyth is a story generator. By harnessing the extreme sensitivity of atomic clocks and BECs to external perturbations, we are now in a position to use atom chips for imaging transport in new regimes. 2) that is, few to sub-micron resolution of sub-nanotesla fields over single-shot, millimeter-long detection lengths. The fields emanating from electronic transport may be detected at the 10-7 flux quantum (Φ0) level and below (see Fig. The instrument uses atom chips-substrates supporting micron-sized current-carrying wires that create magnetic microtraps near surfaces for ultracold thermal gases and BECs-to enable single-shot and raster-scanned large-field-of-view detection of magnetic fields. We have completed the construction of this magnetic microscope, shown in Figure 1. A notable goal will be to measure the surface-to-bulk conductivity ratio in topological insulators in a relatively model-independent fashion. We will do so at temperatures outside the capability of scanning SQUIDs, with ~10x better resolution and without 1/f-noise. We successfully built the world's first “scanning cryogenic atom chip microscope”, and we now are in the process of characterizing its performance before using the instrument to take the first wide-area images of transport flow within unconventional superconductors, pnictides and oxide interfaces (LAO/STO), topological insulators, and colossal magnetoresistive manganites. Our prior DOE ESPM program funded the development of a novel instrument using a dilute gas Bose-Einstein condensate (BEC) as a scanning probe capable of measuring tiny magnetic (and electric) more » DC and AC fields above materials.
Our current program is focused on introducing a novel magnetic field microscopy technique into the toolbox of imaging probes. Up until now, however, no attempts have been made to use modern techniques of ultracold atomic physics to directly explore properties of strongly correlated or topologically protected materials.
Microscopy techniques co-opted from nonlinear optics and high energy physics have complemented solid-state probes in elucidating the order manifest in condensed matter materials. We consider under conditions of the nonlinear de Haas.