Answered step by step
Verified Expert Solution
Link Copied!

Question

1 Approved Answer

3. For a first-order liquid-phase irreversible reaction, (a) Show the Damkhler number (Da) in terms of 'space time for this reaction if Damkhler number is

3. For a first-order liquid-phase irreversible reaction,

(a) Show the Damkhler number (Da) in terms of 'space time for this reaction if Damkhler number is defined as the following equation. (4%)

- rA,0 V

Rate of reaction at entrance

Da =

FA.o

Entering flow rate of A

  1. Express the conversion rate of this reaction in a single CSTR in terms of 'Damkhler number'. (10%)
  2. Derive the conversion rate of this reaction in terms of "Damkhler number' if 5 equal-sized CSTRs connected in series with the same volumetric flowrate under the same operating temperature. (10%)
  3. Considering numerous equal-sized CSTRs connected in series, determine how many reactors are required to reach 80% conversion if (case I) Da = 1.0 and (case Il) Da = 0.1. (6%)
image text in transcribed
3. For a first-order liquid-phase irreversible reaction, (a) Show the Damkhler number (Da) in terms of 'space time' for this reaction if Damkhler number is defined as the following equation. (4\%) Da=FA,0rA,0V=EnteringflowrateofARateofreactionatentrance (b) Express the conversion rate of this reaction in a single CSTR in terms of 'Damkhler number'. (10\%) (c) Derive the conversion rate of this reaction in terms of 'Damkhler number' if 5 equal-sized CSTRs connected in series with the same volumetric flowrate under the same operating temperature. (10%) (d) Considering numerous equal-sized CSTRs connected in series, determine how many reactors are required to reach 80% conversion if (case I) Da=1.0 and (case II) Da=0.1.(6%)

Step by Step Solution

There are 3 Steps involved in it

Step: 1

blur-text-image

Get Instant Access to Expert-Tailored Solutions

See step-by-step solutions with expert insights and AI powered tools for academic success

Step: 2

blur-text-image

Step: 3

blur-text-image

Ace Your Homework with AI

Get the answers you need in no time with our AI-driven, step-by-step assistance

Get Started

Recommended Textbook for

Introduction To Chemical Engineering Thermodynamics

Authors: J. M. Smith, Hendrick C Van Ness, Michael Abbott, Hendrick Van Ness

6th Edition

0072402962, 978-0072402964

More Books

Students also viewed these Chemical Engineering questions