The reactionis first order in bothC₂H4 andHI, witht=EM 189C₂H₁ (g) + HI(g) → C₂H5I(g)at 328 °C. If 1.00 L ofC₂H4 (9) at a concentration of 0.0120 M is rapidly mixed with the same volume ofHI(g) also at a concentration of 0.0120 M, what is the time (in seconds) required for theC₂H4 concentration to decrease a value of 0.00372 M?k=1.03 x 10-5M-TShow Transcribed TextSFirst calculate the concentrations of the two reactants immediately after mixing. Since the volume of each gas is effectively doubled, the molarity will be cut in half:0.00230 M-0.00115 MThe two reactants start at the same concentration and react in a 1:1 ratio. Therefore at any point in the reaction,T-SH). Let this concentration becand let the initial concentration beThen the integrated rate law for the reaction is:2.MfoLmol-sSubstitute the values given into this equation-1820M-1.15 10 M4-264×10²THOIncorrect1182 10 M 1.15 10 MSolving for r gives t-1.75 -10% sĆ

The reaction C₂H₁ (9) + HI(g) →→ C₂H5I(g) is first order in both C₂H4 and HI, with t= k 1.03 x 10-5 at 328 °C. If 1.00 L of C₂H4 (9) at a concentration of 0.0120 M is rapidly mixed with the same volume of HI(g) also at a concentration of 0.0120 M, what is the time (in seconds) required for the C₂H4 concentration to decrease to a value of 0.00372 M? L mol s S

The reaction C₂H₁ (9) + HI(g) →→ C₂H5I(g) is first order in both C₂H4 and HI, with t= k 1.03 x 10-5 at 328 °C. If 1.00 L of C₂H4 (9) at a concentration of 0.0120 M is rapidly mixed with the same volume of HI(g) also at a concentration of 0.0120 M, what is the time (in seconds) required for the C₂H4 concentration to decrease to a value of 0.00372 M? L mol s S

Chemistry

10th Edition

ISBN:9781305957404

Author:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste

Publisher:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste

Chapter1: Chemical Foundations

Section: Chapter Questions

Problem 1RQ: Define and explain the differences between the following terms. a. law and theory b. theory and...

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