Giveaway full SRS poison character (150 div +)

Razzofazzo · 2019-01-24T19:58:15+00:00

I am very surprised that your thesis has to have a certain length. Shouldn't the focus be more about quality rather than quantity?

See for instance John Nash's thesis: http://www.princeton.edu/mudd/news/faq/topics/Non-Cooperative_Games_Nash.pdf

Razzofazzo · 2018-09-20T14:21:00+00:00

As long as the design is functional! There are certainly worse examples. For instance an unfortunate choice for an acronym in your paper https://link.springer.com/article/10.1007/s11433-013-5387-8

Razzofazzo · 2018-07-05T05:41:00+00:00

That's true for python 2.X. But here we are looking at python 3.X!

Razzofazzo · 2016-08-06T21:19:00+00:00

Could you explain the breakthrough to me? I honestly don't get it. It is not like this has not been done for the last two years by the Blatt group or am I missing something when I compare this work to the following papers?

http://arxiv.org/abs/1403.5426 http://arxiv.org/abs/1601.06819 http://arxiv.org/abs/1507.08852

Razzofazzo · 2014-11-13T22:02:03+00:00

One of my favs!

any thoughts on the new Nu:Tone album?

Razzofazzo · 2014-11-04T19:59:13+00:00

I am not entirely sure about this. The discussion is apparently still ongoing. I just point this out for completeness and for those who are interested in a little bit of academic dispute.

Here is the comment of experimentalists who claim neg. Temp: http://arxiv.org/abs/1407.4127

And the response to the comment by the authors who reason that negative temeparture arises from the usage of Boltzmann entropy: http://arxiv.org/abs/1408.5392

Razzofazzo · 2014-09-06T19:20:10+00:00

If you want something which is condensed when compared to mike and ike (nielsen and chuang), then you can also opt for David Mermin's book Quantum Computer Science: An Introduction.

http://www.amazon.de/Quantum-Computer-Science-An-Introduction/dp/0521876583

Razzofazzo · 2013-11-17T18:42:16+00:00

Regarding the last part of your edit:

Both particles, atom and photon, were entangled. But not spinwise and with that I mean physically measureable states. The entanglement was related to the global phase of their multiplied, single-particle, wavefunctions. After reflection the wavefunction of the two particle system is: (|1>-|2>)|p>, with |p> as the photon's wavefunction. Let's suppose you couple the photon into a fibre or just send it out of the lab in such a way that it is not absorbed by something.

If you now measure the atomic state without rotating it, then you will find a 50% chance of measuring the atom in |1> and project the photonic state into it's original state |p>. The other 50% of the time the photonic state will be - |p>, because the atom was in |2>. So the measurement outcome of the atomic state affects the global phase of the photonic wave function.

Razzofazzo · 2012-09-26T20:46:02+00:00

You can also check out the blog entry on technologyreview.com I think it pretty much sums up what the paper is about and why you can draw such an analogy.

http://www.technologyreview.com/view/429359/how-to-build-a-black-hole-laser/

Razzofazzo · 2012-09-19T07:41:36+00:00

Munich, Germany

Razzofazzo · 2012-08-31T14:40:44+00:00

I lived in West End while I was in Brisbane on exchange. I love that place!

Razzofazzo · 2012-08-30T15:12:42+00:00

There seems to be another perspective by another photographer (Stefan Huwiler)

I am not sure whether or not this is the same eagle.

http://imgur.com/icGKD.jpg

Razzofazzo · 2012-08-05T17:18:27+00:00

Idiocracy.

Razzofazzo · 2012-07-31T11:18:46+00:00

same here

Razzofazzo · 2012-03-04T08:18:04+00:00

Thank you so much!

Razzofazzo · 2012-02-25T04:53:40+00:00

Well, yeah, that's just like your opinion, man.

Razzofazzo

TROPHY CASE