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A class III mathematics teacher gave the following questions to her students:  \(\begin{equation} \frac{ \begin{array}[b]{r} 256 \\ + 173 \end{array} }{ } \end{equation}\) \(\begin{equation} \frac{ \begin{array}[b]{r} 28 \\ + 32 \end{array} }{ } \end{equation}\) \(\begin{equation} \frac{ \begin{array}[b]{r} 129 \\ + 76 \end{array} }{ } \end{equation}\) Later she asks the students to solve a worksheet that has similar questions. Which of the following statements is appropriate for the given situation?
The steady-state creep activation energy is given by the Arrhenius type rate equation ε = Ae-(Q/RT), where, Q = activation for rate-controlling step A = pre-exponent complex constant containing the frequency of vibration of the flow unit T = absolute temperature R = Universal gas constant The slope of the equation for log ε vs. log T plot will be equal to __________
Which of the following is the correct Arrhenius equation?
According to Arrhenius equation, rate constant(k) is proportional to ___________
What is meant by ‘Z’ in Arrhenius equation?
The unit of frequency factor in Arrhenius equation is ____
Which theory is the basis for Arrhenius equation?
What is meant by ‘E’ in the Arrhenius equation?
The rate of sequential multistep reaction, in a chemically controlled process, is expressed by the Arrhenius equation, $$k = A{e^{\left( { - \frac{Q}{{RT}}} \right)}}.$$   During an infinitesimallv small time step, this rate refers to the
According to Arrhenius equation of temperature dependency of rate constant for an elementary reaction