Ol’s Notes on Material and Energy Balances. June 2005 [230 pages]. CAN $30, plus shipping cost. 

With worked examples on biochemical, electrochemical, environmental, physicochemical and thermochemical processes. What you need to know to calculate the distribution of material and energy in industrial and natural processes.
“Ol’s Notes on Material and Energy Balances” is a compact and inexpensive resource for teaching the basics of chemical and biological engineering at the 1st and 2nd year university level.
Based on the author’s 20 years experience as an instructor of material and energy (M&E) balances and related topics (www.chml.ubc.ca) “Ol’s Notes” presents the calculation of M&E balances as a powerful tool in accounting for the distribution of material and energy in chemical* processes. Assuming a background in highschool science and mathematics the “Notes” treat M&E balances in a userfriendly, efficient and transparent format, hinging on the general balance equation, combined with the function of six generic process units: divider, mixer, separator, heat exchanger, pump and reactor.
The worked examples illustrate the principles of each chapter and range from simple computations to relatively complex modeling of multiunit recycle and unsteadystate processes. The calculations focus on SI units, and are directed to the use of computer spreadsheets, with itemized flowsheets and stream tables to represent practical systems. Although the examples are mainly concerned with chemical engineering many are angled at environmental problems that show the relevance of material and energy balances to the sustainability of life on Earth.
The text is sprinkled with cartoons that help to focus attention on important concepts. 

*“Chemical” means biochemical, electrochemical, environmental, photochemical,
physicochemical and thermochemical. 
Table Of Contents 

Page 
Nomenclature 

iv 
List of equations 

vii 
List of examples 

vii 
Glossary 

xiv 
Introduction 

1 
Chapter one: 
The General Balance Equation (pdf example) 
3 
Chapter two: 
Process Variables and Their Relationships 
17 
Chapter three: 
Material and Energy Balances in Process Engineering 
65 
Chapter four: 
Material Balances 
75 
Chapter five: 
Energy Balances 
123 
Chapter six: 
Simultaneous Material and Energy Balances 
165 
Chapter seven: 
UnsteadyState Material and Energy Balances 
187 
Epilogue 

203 
Index (pdf example) 

205 
Each chapter ends with a summary of its contents plus a list of related texts for further reading. 


WORKED EXAMPLES (70).
Sampling of subjects from the 70 worked examples: 
Example 1.01 
Material balance on water in a reservoir. 
Example 1.03 
Material balance on carbon dioxide from an internal combustion engine. (pdf example) 
Example 2.01 
Checking the dimensional consistency of equations. 
Example 2.13 
Reaction stoichiometry calculations for the oxidation of ammonia. 
Example 2.19 
Using the steam table to find the phases, enthalpy and volume of water. 
Example 3.01 
Calculating the economic figures of merit of a chemical process. 
Example 4.02 
Integral material balance on water in a space station. 
Example 4.05 
Calculation of separator split fractions from phase equilibria. 
Example 4.06 
Material balance on a multiunit recycle process. 
Example 4.12 
Spreadsheet calculation of material balances. 
Example 4.13 
Material balance on a biochemical process (production of antibiotic). 
Example 4.16 
Material balance on an environmental process (ethanol from biomass). 
Example 5.03 
Integral energy balance for expansion of a gas against a piston. 
Example 5.06 
Energy balances on generic process units (divider, mixer, separator, exchanger, pump, reactor). 
Example 5.12 
Energy balance on an electrochemical process (hydrogenair fuel cell). 
Example 6.05 
Simultaneous M&E balance on a recycle process by the iterative sequential modular method. 
Example 7.02 
Differential energy balance on an unsteadystate closed system (batch heater). 
Example 7.07 
Simultaneous differential M&E balance on an unsteadystate open system
(atmosphere of Earth – global warming). 


