
- Niall M. Fraser |
- Ketra Schmitt |
Title overview
For courses in Engineering Economics.
Canadian engineers have a unique set of circumstances that warrant a text with a specific Canadian focus. Canadian firms make decisions according to norms and standards that reflect Canadian views on social responsibility, environmental concerns, and cultural diversity. This perspective is reflected in the content and tone of much of the material in this text.
Engineering Economics: Financial Decision Making for Engineers is designed for teaching a course on engineering economics, and intended to match engineering practiced in Canada today. It recognizes the role of the engineer as a decision maker who has to make and defend sensible recommendations. Such choices must not only take into account a correct assessment of costs and benefits, they must also reflect an understanding of the environment in which the decisions are made.
Hallmark features of this title
- Engage! boxes near the beginning and end of each chapter recount the fictional experiences of a young engineer at a Canadian company. These vignettes reflect and support the chapter material. The first box in each chapter usually portrays one of the characters trying to deal with a practical problem. The second box demonstrates how the character has solved the problem by applying material discussed in the chapter above.
- Close-Up boxes in the chapters present additional material about concepts that are important but not essential to the chapter.
- Case in Point boxes present material relevant to the appropriate chapter. The issues raised can be difficult, curious, and possibly disquieting. There may be no obvious “right” answer or “correct” application of principles. Students are invited to challenge rigidity, and encouraged to exercise flexibility in their problem- solving approaches.
New and Updated Features
- We have updated 5 of our Case in Point features, in Chapters 1, 3, 7, 10 and 12. Each Case in Point addresses a circumstance appropriate to the chapter material and raises difficult and sometimes unanswerable questions. They provide an opportunity for the individual student to challenge their own thinking. They also are ideal material for initiating lively class discussions intended to enhance the students’ understanding of the core topics as well as broaden their perspectives generally.
- Similarly, we have updated 4 of our Mini-Case features (Chapter 2, 6, 7, and 8) and added 7 new ones in Chapters 1, 3, 4, 5, 9, 10, and 12. These end-of-chapter case studies are similar to the Case in Point features, but are deeper views of significant Canadian issues.
- Chapter 10 has been significantly updated to better reflect public policy practice in Canada and to broaden the concepts of benefit-cost analysis in practice. Minor changes to all other chapters have been made to update and improve the overall flow and presentation of the material.
- Some educators have reported that students have trouble seeing and appreciating the relevance of the content covered in the engineering economics course. We have experiential learning simulations that provide a novel way to integrate material across chapters and to help students engage more deeply with the course content. Each simulation engages the student in an activity that mimics the decision making that the student could undertake as an active engineer. The student interacts with their employer and fellow employees, or external parties, and is guided through a learning process that brings to life the academic material studied.
Key features
Important Digital Assets in MyLab Engineering
- Excel Projects. Using proven, field-tested technology, auto-graded Excel Projects let you seamlessly integrate Microsoft® Excel® content into your course without having to manually grade spreadsheets. Students can practise important skills in Excel, helping them master key concepts and gain proficiency with the program. They simply download a spreadsheet, work live on a problem in Excel, and then upload that file back into MyLab. Within minutes, they receive a report that provides personalized, detailed feedback to pinpoint where they went wrong in the problem.
- Spreadsheet Savvy. Spreadsheet Savvy contains features that indicate elements of Excel related to the chapter material. It shows how Excel can be used to support the computations necessary to implement the concepts covered. From the basics of computing interest rates or the present worth of a series of cash flows to a full-blown analysis of major projects, spreadsheets help engineers compute results, evaluate alternatives, document outcomes, and make recommendations to colleagues and other stake holders.
- Excel Spreadsheets. Excel spreadsheets for selected Spreadsheet Savvy discussions, examples, and problems are available on MyLab Engineering.
- Ametros. The Engineering Economics Experiential Learning Module provides students with a risk-free experiential setting to practise and apply theory while developing the skills they need to be successful in the workplace. This Engineering Economics Experiential Learning Module can be added to your course by contacting your Pearson sales representative.
- Interactive Figures. Interactive figures bring concepts to life, helping students see the concepts through directed explorations and purposeful manipulation. These figures are assignable and encourage active learning, critical thinking, and conceptual understanding. These interactive graphs and figures can be found by learners within the eTextbook and can be assigned by instructors through our MyLab Multimedia Library.
- Learning Catalytics. Learning Catalytics™ allows students to use any web-enabled device to participate in class. Instructors can access a library of pre-built questions or construct questions on their own to keep students engaged in the lecture. Learning Catalytics can be assigned to students synchronously or asynchronously and used for individual or group work. It can also place students in discussion groups based on their responses and location, regardless of class size.
Table of contents
- Engineering Decision Making
- Time Value of Money
- Cash Flow Analysis
- Comparison Methods: Part 1
- Comparison Methods: Part 2
- Financial Accounting and Business Plans
- Replacement Decisions
- Taxes
- Inflation
- Public Sector Decision Making
- Project Management
- Dealing With Uncertainty And Risk
- Qualitative Considerations and Multiple Criteria
Author bios
Dr. Ketra Schmitt is an Associate Professor in the Centre for Engineering in Society at Concordia University. She founded the Systems Risk Laboratory to conduct technology policy research using systems models to evaluate social-technical problems. The Systems Risk Laboratory uses agent-based models to act as a policy laboratory so the potential economic and social impacts of policies can be understood prior to implementation. She also develops online systems to facilitate stakeholder engagement in technology assessment. Her research has been funded by NSERC, FQRSC, Public Safety Canada and Natural Resources Canada. She supervises students in the Concordia Institute for Systems Engineering (where she is also an associate member) and in Industrial Engineering, and co-supervises students throughout the engineering faculty.
Before joining Concordia, she worked as a research scientist at the Battelle Memorial Institute, leading an interdisciplinary team to develop a method to estimate economic impacts of biological, chemical, nuclear and radioactive terrorism as well as underlying systems models. Her work applying systems methods and agent-based models has been used to inform policy for federal agencies in Canada and the US on topics ranging from social media governance, deference, terrorism and environmental protection. She serves as Editor-in-Chief for IEEE Technology and Society Magazine and is a board member for the Society for the Social Implications of Technology.