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maboomba
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If say a hundred or more objects, at a human scale, are connected by a string, and they can be made to synchronize in an oscillation, could that be considered a bose einstein condensate?
I only look like that in a parallel universe where we all have only 8 fingersmaboomba said:making fun of your avatar, implying that a character from "The Simpsons" is not an authority.
maboomba said:Ideally, I'd like to see a flame-war with lots of name-calling, capital letters, exclamation points, etc., but I can only dream... (sigh) )
Kites in the wind will never be coherent.maboomba said:By arranging kites in stacks and lattices, like semiconductor chips on a grand scale, they can sustain long-range-order in coherent phonon states, harvesting and transmitting power effectively.
maboomba said:OK thanks for that. Here's the latest 4-paragraph response from the kite guy:
The Bose-Einstein condensate is a state of matter that occurs when a group of bosons (particles with integer spin) are cooled to near absolute zero, causing them to occupy the same quantum state. This results in a macroscopic wave-like behavior, also known as quantum coherence, which can be observed on a larger scale. The BEC provides a unique opportunity to study the effects of quantum mechanics on a macroscopic level.
The size of the particles in a BEC does not significantly affect its behavior. This is because the quantum effects that lead to the formation of a BEC are only dependent on the number of particles, not their size. However, the size of the particles can affect the stability and lifetime of the BEC.
No, BECs can only be created with bosons, such as atoms with even number of protons, neutrons, and electrons. Fermions, on the other hand, do not exhibit Bose-Einstein condensation due to the Pauli exclusion principle.
Studying quantum Bose-Einstein effects on a macro scale can have various practical applications such as in quantum computing, precision measurements, and quantum simulations. It can also enhance our understanding of fundamental physics and potentially lead to new technologies and advancements.
No, BECs can only exist at extremely low temperatures, typically near absolute zero. At room temperature, thermal energy is too high for the particles to condense into the same quantum state. However, recent research has shown the possibility of creating a room-temperature BEC using exciton-polaritons, which are hybrid particles composed of photons and excitons.