Isothermal Batch Reactor Part 2 (POLYMATH Solution)
14
Isothermal Semibatch Catalytic Reactor
15
Material Balances on Tank Reactors
16
Reaction Times for High Conversion
17
Semibatch Reactor Overview
18
Catalyst Amount in Packed Bed Reactor
19
Catalytic Packed Bed Reactor
20
Catalytic Packed Bed Reactor (POLYMATH)
21
Catalytic Reactor: Activity Decay
22
Comparing CSTR and PFR Balances
23
CSTR Design Example (Using Damkohler Number)
24
Continuous Stirred Tank Reactor Overview
25
Determining Rate Constant in a PBR
26
Effect of Ignoring Density Change in PFR
27
Effect of Stoichiometry in Gas Phase Reaction
28
Equivalence between a PFR and a CSTR
29
Explanation of the Ergun Equation
30
Gas Reacts to Form Solid Product in PFR
31
Half-Life for First-Order Reaction
32
Isothermal Plug Flow Reactor: Part 1
33
Isothermal Plug Flow Reactor: Part 2
34
Levenspiel Plots
35
Mole Balance on a Plug Flow Reactor
36
PFR Design Example (Using Damkohler Number)
37
Plug Flow Reactor Overview
38
Pressure Drop in a Packed Bed Reactor
39
Pressure Drop in a Packed Bed Reactor (POLYMATH)
40
Reaction in a PFR with Pressure Drop
41
Reaction Rate in an Isothermal PFR
42
Reactor with Highest Rate of Consumption
43
Semibatch Hydrogenation Example
44
Variable Density Reaction in a PFR
45
Comparing Reactors in Series
46
CSTRs in Series
47
PFR and CSTR in Series A
48
PFR and CSTR in Series B
49
Reactor Sequence: CSTR and PFR
50
Reactors in Series: First-Order Reaction
51
Replacing a CSTR with Two CSTRs in Series
52
Sizing CSTRs on Reciprocal Rate Data
53
Two CSTRs in Series
54
Laminar Flow Reactor: Segregated Flow
55
Length of a Porous Wall Tubular Reactor
56
Membrane Reactor Introduction
57
Membrane Reactor
58
Recycle Reactor Example
59
Material Balances on Tank Reactors
60
Reversible Reaction in an Isothermal CSTR
61
Introduction to Chemical Reactor Design
Description:
Explore a comprehensive 7-hour screencast series on isothermal reactor design, covering various reactor types including batch, semibatch, flow, series, and parallel reactors. Dive into topics such as math review for kinetics, ODE solving methods, reactor design problem-solving, and specific reactor configurations. Learn about material balances, reaction times, catalyst effects, pressure drops, and advanced concepts like membrane reactors and laminar flow reactors. Gain practical skills through examples and POLYMATH solutions, while understanding key principles such as the Ergun equation and Levenspiel plots. Benefit from corrected closed captioning and organized content aligned with textbook chapters for enhanced learning.