Chemistry, asked by LegendaryQueen, 1 year ago

Hello!!!!


ɦօա ǟʀɛ ʊ ǟʟʟ



dσ αnчσnє hєrє hαѕ αnч kínd σf ínfσrmαtíσn σn



6th STATE OF MATTER!!

í wαnt ínfσrmαtíσn líkє..

1. whєn αnd whєrє wαѕ íѕ díѕcσvєrєd?
2. whσ díѕcσvєrєd ít?
3. ímpσrtαnt ínfσrmαtíσn σn ít.
4. єхαmplєѕ(íf αnч)


If yes then answer.

Word limit is (250-300) words!!​

Answers

Answered by Pragyan25
3

Hello mate!!!

Fine nd you??

Answer:

A fermionic condensate is a superfluid phase formed by fermionic particles at low temperatures. It is closely related to the Bose–Einstein condensate, a superfluid phase formed by bosonic atoms under similar conditions. The earliest recognized fermionic condensate described the state of electrons in a superconductor; the physics of other examples including recent work with fermionic atoms is analogous. The first atomic fermionic condensate was created by a team led by Deborah S. Jin in 2003.

A chiral condensate is an example of a fermionic condensate that appears in theories of massless fermions with chiral symmetry breaking.

When Eric Cornell and Carl Wieman produced a Bose–Einstein condensate from rubidium atoms in 1995, there naturally arose the prospect of creating a similar sort of condensate made from fermionic atoms, which would form a superfluid by the BCS mechanism. However, early calculations indicated that the temperature required for producing Cooper pairing in atoms would be too cold to achieve. In 2001, Murray Holland at JILA suggested a way of bypassing this difficulty. He speculated that fermionic atoms could be coaxed into pairing up by subjecting them to a strong magnetic field.

When Eric Cornell and Carl Wieman produced a Bose–Einstein condensate from rubidium atoms in 1995, there naturally arose the prospect of creating a similar sort of condensate made from fermionic atoms, which would form a superfluid by the BCS mechanism. However, early calculations indicated that the temperature required for producing Cooper pairing in atoms would be too cold to achieve. In 2001, Murray Holland at JILA suggested a way of bypassing this difficulty. He speculated that fermionic atoms could be coaxed into pairing up by subjecting them to a strong magnetic field.In 2003, working on Holland's suggestion, Deborah Jin at JILA, Rudolf Grimm at the University of Innsbruck, and Wolfgang Ketterle at MIT managed to coax fermionic atoms into forming molecular bosons, which then underwent Bose–Einstein condensation. However, this was not a true fermionic condensate. On December 16, 2003, Jin managed to produce a condensate out of fermionic atoms for the first time. The experiment involved 500,000 potassium-40 atoms cooled to a temperature of 5×10−8 K, subjected to a time-varying magnetic field.


LegendaryQueen: thαnkuu ѕσ much
LegendaryQueen: í αm gσσd... thnkѕ
Pragyan25: Ok
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