Engineering and Technology in Society
Overview
Students will explore the history and current state of engineering practice by analyzing engineering project case studies such as the Pyramids of Egypt, the Roman Aqueducts, the Great Wall of China, the Panama Canal and the Three Gorges Dam. This analysis will strongly emphasize the ethical, social and political aspects of engineering projects.
As well, students will be expected to analyze present day projects such as the Trans Mountain pipeline and the BC Hydro Site C dam.
- An Introduction to Engineering and Technology
- The role and responsibilities of the engineer
- The engineering profession, specializations and regulation
- An introduction to the engineering design process
- Project management fundamentals and tools
- Teams, teamwork and group dynamics
- Problem solving strategies
- The scientific method, critical thinking and junk science
- Engineering and Technology Throughout History
- Engineering, science and technology in society
- The relationship between engineering, science and technology throughout history
- The influence of technology on society throughout history
- Cultural, social, economic and political issues related to technological change
- Case studies and examples of major engineering works throughout history and their influence on modern-day society
- Case studies and examples illustrating engineering accomplishments and failures throughout history
- The current state of engineering and the future of engineering
- Case studies and examples of current technology such as information theory, artificial intelligence and machine learning
- Ethical Issues in Engineering
- Ethics in engineering and the Engineers and Geoscientists BC Code of Ethics
- Foundational ethical ideas, rights and role based ethics
- Ethical behaviour
- Ethical dilemmas and decision making
- Conflicts of interest
- Case studies and examples illustrating ethical issues, dilemmas and decision making within the context of engineering
- Sustainability and the Environment
- Sustainability models and the pillars of sustainability
- Assessing sustainability and life-cycle assessments
- Sustainable design
- Environmental sustainability, environmental stewardship and the Engineers and Geoscientists BC Code of Ethics
- Awareness and risk analysis of potential impacts on society and the environment over the life-cycle of engineering projects
- Case studies and examples of sustainable design related to topics such as energy impacts and costs, plastics, water quality and air pollution
- Professional Practice
- An introduction to legal system and engineering law: common vs. statutory law, contracts, tort law, negligence, consumer protection statutes
- Intellectual property and the protection of technology by law
- Professional development and personal growth
- Lectures
- In class group discussion
- In class case study analysis
- Group projects
- Poster presentations
- Possible online assignments and discussion
Assessment will be carried out in accordance with Douglas College Evaluation policy. The instructor will present a written course outline with specific evaluation criteria at the beginning of the semester. Evaluation will be based on the following:
Research paper (individual and/or group): 30% - 40%
Design project with subsequent poster presentation (individual and/or group): 20% - 30%
In-class participation and/or exercises: 10% - 15%
In-class quizzes/tests: 15% - 30%
Total: 100%
Assessment means could include online quizzes and assignments.
Upon successful completion of the course, students will be able to:
- explain the role of scientists, engineers, and technologists in supporting and enhancing society;
- utilize project management concepts and tools to plan a project;
- describe and use the engineering design process toward the completion of an engineering design project;
- assume responsibility for their work while participating equitably and effectively as part of a team;
- apply general scientific principles, such as the laws of thermodynamics and conservation of energy, in the context of problem solving;
- apply scientific principles to debunk ‘junk’ science and engineering myths such as perpetual motion;
- describe the relationship between science, engineering and technology;
- describe the role that technology and energy play in various aspects of social life (e.g. politics, economics, and history);
- describe the scientific, economic, social and/or energy-based motivations behind significant technological developments throughout history;
- describe the benefits, detriments and impact of key engineering undertakings, both historical and current, on the practice of engineering and society as a whole;
- analyze major engineering projects in terms of key resources such as cost, labour, energy parameters and implementation time;
- describe the role that failures and disasters play in improving the practice of engineering;
- describe the basic principles of the Engineers and Geoscientists BC Code of Ethics;
- recognize and analyze ethical dilemmas within the context of engineering practice, and determine an appropriate and defensible course of action;
- practice ethical behavior as a student;
- describe the importance of sustainability to society;
- list and describe methods used to assess sustainability;
- list and describe examples of sustainable design;
- identify sustainability considerations (societal, environmental, energy and economic) within engineering projects;
- describe basic legal aspects involved in the practice of engineering;
- describe how technology is protected in law and in practice;
- describe the ethical and professional obligations that arise out of the development and use of technology;
- engage in professional practice as engineering students, with awareness of their legal and moral responsibilities.
Consult the Douglas College Bookstore for the latest required textbooks and materials. Example textbooks and materials may include:
- "The Betterment of the Human Condition" by John D. Jones, current edition
- "The Ancient Engineers" by L. Sprague De Camp, 1995 edition
- "Engineer's Toolkit: A First Course in Engineering" by Carl Mitcham and Shannon Duval, current edition
- "Engineers Within a Local and Global Society" by Caroline Baillie, current edition
- "To Engineer is Human: The Role of Failure in Successful Design" by Henry Petroski, current edition
- “Canadian Professional Engineering and Geoscience” by Gordon C. Andrews, current edition,
- “Engineering and Technology in Society – Canada” by Jennifer Kirkey, current edition
- "Introduction to Engineering" by Peter Ostafichuk and Carol Jaeger, current edition
Requisites
Course Guidelines
Course Guidelines for previous years are viewable by selecting the version desired. If you took this course and do not see a listing for the starting semester / year of the course, consider the previous version as the applicable version.
Course Transfers
These are for current course guidelines only. For a full list of archived courses please see https://www.bctransferguide.ca
Institution | Transfer details for ENGR 1100 |
---|---|
Alexander College (ALEX) | No credit |
Capilano University (CAPU) | CAPU APSC 1XX (3) |
College of the Rockies (COTR) | COTR APSC 1XX (3) |
Columbia College (COLU) | COLU APSC 1st (3) |
Kwantlen Polytechnic University (KPU) | KPU APSC 1124 (1) |
Northern Lights College (NLC) | No credit |
Okanagan College (OC) | OC GEOG 1XX (3) |
Simon Fraser University (SFU) | SFU ENSC 100 (3) or SFU MSE 102 (3) or SFU SEE 110 (3) |
Thompson Rivers University (TRU) | No credit |
University Canada West (UCW) | No credit |
University of British Columbia - Okanagan (UBCO) | No credit |
University of British Columbia - Vancouver (UBCV) | UBCV APSC_V 1st (3) |
University of the Fraser Valley (UFV) | UFV ENGR 1XX (3) or UFV GE 1XX (3) |
University of Victoria (UVIC) | UVIC ENGR 297 (1.5) |
Vancouver Community College (VCC) | VCC SCIE 1100 (3) |
Vancouver Island University (VIU) | VIU ENGR 1st (3) |