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【Daily Question】Wastewater Knowledge - 10-30 (2 points for answering, 5 points for a correct answer)

2015-10-29View Original

Thread Content

True or False: The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical energy. ( )
Reply #22015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. (True)
Reply #32015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. ( X )
Reply #42015-10-29
I believe the statement in this question is correct.
Reply #52015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. (Correct)
Reply #62015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. (Correct)
Reply #72015-10-29
Correct----------------------------------------------------------------------
Reply #82015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. ( X )
Reply #92015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. (Yes)
Reply #102015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. ( Right
Reply #112015-10-29
The theory behind shallow aeration is that the oxygen transfer efficiency during bubble formation is several times higher than that during bubble rise; therefore, when the oxygen transfer rate is the same, shallow aeration requires less electrical power. (Yes)

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