Physicists Discover an Atomic Oddity

In summary, Professor Sam Tabor and an international team of scientists performed an experiment at the GSI laboratory in Germany using a particle collider to create a cigar-shaped atom. The atom demonstrated a new type of radioactive decay by ejecting two protons simultaneously. This was caused by a deficit of neutrons in the atom, deforming it into a cigar shape. The researchers are now discussing future directions for their research, while also conducting related experiments at the Superconducting Accelerator Laboratory at FSU. The conversation also mentions the distance between Tallahassee and Disney World.
  • #1
Astronuc
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I haven't had time to digest this, but - http://www.physorg.com/news10263.html

Sam Tabor, a professor of experimental nuclear physics at FSU and director of the university's Superconducting Accelerator Laboratory, recently performed the experiment at the GSI laboratory in Darmstadt, Germany, in collaboration with the international team. In the experiment, a cigar-shaped atom was created using a particle collider. To the scientists' surprise, this atom demonstrated a novel kind of radioactive decay by spitting out two free protons at the same time.

At the GSI lab, Tabor and his colleagues bombarded a thin film of nickel foil with a beam of calcium atoms, causing some nickel and calcium ions to coalesce to form silver atoms with fewer neutrons than normal. Most of these silver atoms decayed conventionally, but a few ejected two protons at once.

The deficit of neutrons in the silver had deformed the nuclei from spheres into fat cigar shapes. In some cases the proton pairs jumped out from the same end of the cigar, at other times from opposite ends, but they were always perfectly synchronized, Tabor said.

The collaborators now are discussing future directions for their research. "However," Tabor said, "we are also performing related research at the Superconducting Accelerator Laboratory right here at FSU.
I wonder how far from Disney World this place is - eh, Zz?
 
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  • #2
Astronuc said:
I wonder how far from Disney World this place is - eh, Zz?

Tallahassee is, unfortunately, rather far from Orlando.

Anyway, if you're citing the same experiment, Astronuc, then... er... isn't this rather "old"? :)

http://physicsweb.org/articles/news/6/9/8/1

Zz.
 
  • #3


This is a very interesting discovery by Professor Sam Tabor and his team. The fact that they were able to create a cigar-shaped atom using a particle collider and observe a novel type of radioactive decay is truly remarkable. It just goes to show how much more there is to discover about the atomic world and how advancements in technology are allowing us to do so.

The synchronized ejection of two protons from the same or opposite ends of the cigar-shaped atom is also fascinating. It raises questions about the structure and behavior of these deformed nuclei and what other oddities may be waiting to be discovered. It's great to hear that Professor Tabor and his colleagues will continue their research in this area, and it will be exciting to see what they uncover next.

On a lighter note, I also found it amusing that Professor Tabor mentioned the distance from Disney World to the Superconducting Accelerator Laboratory. It just goes to show that even in the world of physics, a little bit of humor can be found. Overall, this is a fantastic discovery and I look forward to reading more about it as the research progresses.
 

1. What is the atomic oddity that physicists have discovered?

The atomic oddity that physicists have discovered is a new type of subatomic particle that behaves differently than any known particle.

2. How did physicists make this discovery?

Physicists made this discovery by analyzing data from particle collisions at the Large Hadron Collider in Switzerland.

3. What are the potential implications of this discovery?

This discovery could potentially lead to a better understanding of the fundamental laws of physics and open up new avenues for research in particle physics.

4. How does this discovery relate to previous theories in physics?

This discovery challenges some of the existing theories in physics and could potentially lead to the development of new theories to explain the behavior of this new particle.

5. What are the next steps for further research on this atomic oddity?

The next steps for further research on this atomic oddity include conducting more experiments and gathering more data to confirm its existence and characteristics, as well as exploring its potential applications in various fields of physics.

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