Related InterviewSolutions

• The plot of the function of equilibrium conversion to time for a bimolecular type reversible reaction is ____(a) Exponential(b) Linear(c) Logarithmic(d) QuadraticThe question was asked in semester exam.My question is taken from Temperature & Pressure Effects in chapter Complex Flow Patterns, Temperature and Pressure Effects of Chemical Reaction Engineering
• Which of the following represents second order bimolecular type reversible reaction?(a) A+B ↔ R+S(b) A ↔ B(c) A ↔ R+S(d) A+B ↔ RI had been asked this question during an interview.The above asked question is from Temperature & Pressure Effects in chapter Complex Flow Patterns, Temperature and Pressure Effects of Chemical Reaction Engineering
• State true or false.It is possible to achieve a conversion greater than the equilibrium conversion.(a) It is possible to achieve a conversion greater than the equilibrium conversion.(b) True(c) FalseI had been asked this question in an internship interview.The question is from Temperature & Pressure Effects topic in portion Complex Flow Patterns, Temperature and Pressure Effects of Chemical Reaction Engineering
• State true or false.A reversible reaction is the one in which the reaction proceeds simultaneously in both directions.(a) A reversible reaction is the one in which the reaction proceeds simultaneously in both directions.(b) True(c) FalseI got this question in examination.Question is taken from Temperature & Pressure Effects in section Complex Flow Patterns, Temperature and Pressure Effects of Chemical Reaction Engineering
• The Le- Chatlier principle states that ____(a) No reaction is reversible(b) All reactions are reversible at high temperatures(c) A system experiencing disturbance shifts direction of equilibrium to nullify the change(d) A system experiencing disturbance does not shift direction of equilibrium to nullify the changeThe question was posed to me by my college professor while I was bunking the class.This intriguing question comes from Temperature & Pressure Effects in section Complex Flow Patterns, Temperature and Pressure Effects of Chemical Reaction Engineering