"Crack"
He ate as he spoke.
Chewing the energy bar, which was not particularly tasty, Chu An looked at Xuan Haicheng's nervous face.
"In theory, an Einstein Condensate requires an extremely low temperature to reduce the speed of the particles inside matter to zero."
"Only then can this state be stabilized and briefly condensed, causing the states of all forms to become unified."
"At room temperature or under high temperatures, the particles inside matter move at high speed. The higher the temperature, the faster they move. And the faster they move, the more active the physical properties displayed by particles of different attributes become, causing them to develop 'divergences' from one another."
"It's like how steel melts into molten iron at high temperatures. Excessively high temperatures cause the molecular states inside matter to change, making it impossible to maintain their original unified condensation—integration."
"To put it more simply, looking at it from the opposite angle, ice has to stay in a freezer to ensure that it remains ice instead of melting into water."
"So, theoretically, an Einstein Condensate cannot be produced under high temperatures. It's like ice on a stove—it has no way of not melting."
He explained it in detail, essentially explaining it for Xuan Haicheng and the others.
Seeing their half-understanding gazes, Chu An did not mind and instead looked at the middle-aged researcher who was the most confused.
"Your question isn't wrong, but we can actually think about it from another angle."
"First, the essence of an Einstein Condensate is to make the molecules inside matter stop moving and maintain a stationary state, not a low-temperature state."
"Don't put the cart before the horse."
"You can only say that under low temperatures, molecules can stop moving. But that doesn't mean low temperatures are the only condition under