At extremely low temperatures, molecules condense into a singlequantum state and become a "supermolecular wavefunction" withspecial properties, inclduing the extension of the moleculethroughout space. This is called "Bose-Einstein Condensation"
a) Explain, using the translational partition function andassociated properties, how the molecule condenses into a singlequantum state.
b) Explain why, in this quantum state, the molecule wavefunctionessentially spreads throughout space. Explain based on statisticalthermodynamics; what function relates to the "spread" of themolecular wavefunction?
c) IF you trap a thiophosgene (CSCl2) molecule in a 1 mLchamber, at what temperature would the molecule condense into asingle quantum state and spread its wavefucntion throughout the 1mL chamber?
At extremely low temperatures, molecules condense into a singlequantum state and become a "supermolecular wavefunction" withspecial properties, inclduing the extension of the moleculethroughout space. This is called "Bose-Einstein Condensation"
a) Explain, using the translational partition function andassociated properties, how the molecule condenses into a singlequantum state.
b) Explain why, in this quantum state, the molecule wavefunctionessentially spreads throughout space. Explain based on statisticalthermodynamics; what function relates to the "spread" of themolecular wavefunction?
c) IF you trap a thiophosgene (CSCl2) molecule in a 1 mLchamber, at what temperature would the molecule condense into asingle quantum state and spread its wavefucntion throughout the 1mL chamber?