`10.00` mol of pure, `1-`butyne was taken in a flask with some basic catalyst, sealed and heated to `500K` where it isomerised to produce `2-`butyne and `1,3-`butadiene. At equlibrium `3.0` mole of `2-`butyne and `5.5` mole of `1.3-`butadiene were found to be present in the flask. If `2.0` mole of `1.3-`butadiene wer added further to the above equilibrium mixture. What would be the new equilibrium composition when equilibrium was established again? 1-butyne 2-butyne 1,3-butadieneA. 1.80moles 3.60moles 3.60molesB. 3.60moles 6.60moles 1.80molesC. 1.80moles 6.6moles` 3.60molesD. 3.60moles 1.80moles 6.60moles

`10.00` mol of pure, `1-`butyne was taken in a flask with some basic c

1.	`10.00` mol of pure, `1-`butyne was taken in a flask with some basic catalyst, sealed and heated to `500K` where it isomerised to produce `2-`butyne and `1,3-`butadiene. At equlibrium `3.0` mole of `2-`butyne and `5.5` mole of `1.3-`butadiene were found to be present in the flask. If `2.0` mole of `1.3-`butadiene wer added further to the above equilibrium mixture. What would be the new equilibrium composition when equilibrium was established again? 1-butyne 2-butyne 1,3-butadieneA. 1.80moles 3.60moles 3.60molesB. 3.60moles 6.60moles 1.80molesC. 1.80moles 6.6moles` 3.60molesD. 3.60moles 1.80moles 6.60moles
Answer» Correct Answer - A

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