Looks like it's just calling the crossref API
605 karma · joined May 10, 2013
Sure it can be done, but it's not exactly like there are well-established solutions for this.
In Chrome: chrome://settings/languages
In Firefox: https://support.mozilla.org/en-US/kb/choose-display-language...
> Hopefully, this article has disabused some of that notion.
If that was the goal, it seems terribly complicated when compared with podman.
It just so happens that your example consists of two UTF-16 codepoints.
(Node.js' Buffer uses UTF-8 by default).
A single qubit is not useful for computation and the way it is written doesn't generalize to more than a single qubit. The code doesn't even really simulate a single qubit properly, since it doesn't use complex numbers.
What they call a "Rydberg gate" is not a gate at all.
Most of the text feels like it's written by an AI.
old: https://about.gitlab.com/images/blogimages/compassinfield.pn...
But I've already complained about that [1] when you presented your last project.
TeX is a a turing-complete language, picking some random subset of LaTeX commands would feel pretty arbitrary to me. In comparison, supporting full markdown syntax is pretty easy.
This protocol depends on multipartite entanglement, so it does seem quite far away from being practical for anything yet.
If quantum routers were a solved problem and we had a quantum internet (last I checked, we do not), for this we would also need some form of 'coherent multicast routing'.
The G80-3000 comes without NKRO, a very bendable case and PCB-mounted rather than plate-mounted switches.
A Leopold (for example) is much more pleasant to use and not so exotic that it's impossible to obtain a replacement.
What's done in such an experiment is that we initialize a quantum state in a particular state (that this is possible is not actually obvious, but let's assume it's true) and then we make a lot of repeated measurements after different amounts of times.
So we're not talking about a single system, but instead about statistics about a set of measurements with systems that have been set up in the same initial state. (Each system only being measured once after a certain time after it's being set up).
Quantum leaps being instantaneous would be a (possibly common) misconception.
The leap in a quantum leap is describing the notion of a discrete jump in measurement outcomes.
It's a great file format for space-efficient archiving of scans like that, with a bit of scripted preprocessing.
Is something like that for papers on the arXiv.
\documentclass[border=3pt]{standalone}
\usepackage{tikz}
\usetikzlibrary{lindenmayersystems}
\begin{document}
\begin{tikzpicture}[line width=1pt, rounded corners=4pt,
l-system={
rule set={X -> X+YF+,Y->-FX-Y},
axiom=FX, angle=90, order=11, step=10pt
}
]
\foreach \c/\r in {green/0, red/90, blue/180, orange/270}
\draw[\c, rotate=\r] l-system;
\end{tikzpicture}
\end{document}It's only really used by the quantum information community at this point, but you could try promoting it in yours.
Given the focus on allowing anonymous commenting [1] this seems to make sense.
It's pretty bad.
Some ideas for improvements:
The package directory could be mentioned more prominently.
It's a bit tricky to select code in the PDF, not sure if much can be done about this?
It just doesn't make any sense.
> platform compatibility headaches and per-platform performance tuning [35, 30, 24].
That seems a bit biased, doesn't it?
What else would you expect to happen?
But it's still nice to see the idea get picked up again. Spore had a great concept, but was executed poorly.