
Engineering Justice
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Using social justice as a catalyst for curricular transformation, Engineering Justice presents an examination of how politics, culture, and other social issues are inherent in the practice of engineering. It aims to align engineering curricula with socially just outcomes, increase enrollment among underrepresented groups, and lessen lingering gender, class, and ethnicity gaps by showing how the power of engineering knowledge can be explicitly harnessed to serve the underserved and address social inequalities. This book is meant to transform the way educators think about engineering curricula through creating or transforming existing courses to attract, retain, and motivate engineering students to become professionals who enact engineering for social justice.
Engineering Justice offers thought-provoking chapters on: why social justice is inherent yet often invisible in engineering education and practice; engineering design for social justice; social justice in the engineering sciences; social justice in humanities and social science courses for engineers; and transforming engineering education and practice. In addition, this book:
* Provides a transformative framework for engineering educators in service learning, professional communication, humanitarian engineering, community service, social entrepreneurship, and social responsibility
* Includes strategies that engineers on the job can use to advocate for social justice issues and explain their importance to employers, clients, and supervisors
* Discusses diversity in engineering educational contexts and how it affects the way students learn and develop
Engineering Justice is an important book for today's professors, administrators, and curriculum specialists who seek to produce the best engineers of today and tomorrow.
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Persons
Jon A. Leydens, PhD, is an Associate Professor in the Division of Humanities, Arts, and Social Sciences at Colorado School of Mines.
Juan C. Lucena, PhD, is a Professor and Director of Humanitarian Engineering in the Division of Engineering, Design & Society at Colorado School of Mines.
Content
A Note from the Series Editor xiii
About the Authors xv
Foreword xvii
Preface xxiii
Acknowledgments xxvii
Introduction 1
1 Pressing Issues for Engineering Education and the Engineering Profession 3
1.1 A Mismatched Curriculum 3
1.2 Responsibility that Emerges from the Transformative Power of Engineering 7
1.3 Inquiring into the Framing of Benefits and Constraints 9
1.4 Transitioning from Weak to Robust Sustainability 9
1.5 Fostering Inclusive Excellence 10
1.6 Engaging Emerging Interest Groups 11
2 Research Methods 12
3 Theoretical Frameworks 13
4 Engineering for Social Justice 14
4.1 Emerging Organizations Provide New Opportunities 15
4.2 Calls from Engineering Education Leaders 16
4.3 Emerging Scholarship on Engineering and Social Justice 18
5 Engineering for Social Justice Criteria 19
5.1 Listening Contextually to Develop Trust and Empathy 21
5.2 Identifying Structural Conditions 23
5.3 Acknowledging Political Agency and Mobilizing Power 24
5.4 Increasing Opportunities and Resources 26
5.5 Reducing Imposed Risks and Harms 27
5.6 Enhancing Human Capabilities 28
5.7 Engineering and Social Justice Criteria Combined 30
6 Guidelines for Engineering for Social Justice Implementation 31
6.1 Cradle-to-Grave Analysis 31
6.2 Transcending Temporal Delimitations 33
6.3 Culling Multiple Perspectives 33
7 Further Chapters 34
7.1 Ideologies and Mindsets that Render Social Justice Invisible or Irrelevant 34
7.2 Engineering Design 35
7.3 Engineering Sciences 36
7.4 Humanities/Social Science Courses for Engineering Students 36
7.5 E4SJ as Catalyst for Inclusive Excellence in Engineering 37
7.6 Conclusion 37
8 Benefits of E4SJ Approach 37
References 38
1 Social Justice is often invisible in Engineering Education and Practice 45
1.1 Generic Barriers to Rendering Social Justice Visible 46
1.1.1 Normalcy 46
1.1.2 Superiority 47
1.1.3 Unconscious Biases 47
1.1.4 Personal and Broader Societal Framing 48
1.2 Engineering-Specific Barriers to Rendering Social Justice Visible: Ideologies 49
1.2.1 Technical-Social Dualism 50
1.2.2 Depoliticization 52
1.2.3 Meritocracy 55
1.3 Engineering-Specific Barriers to Rendering Social Justice Visible: Mindsets 56
1.3.1 Centrality of Military and Corporate Organizations 57
1.3.2 Uncritical Acceptance of Authority 58
1.3.3 Technical Narrowness 59
1.3.4 Positivism and the Myth of Objectivity 59
1.3.5 Willingness to Help and Persistence 60
References 63
2 Engineering Design for Social Justice 67
2.1 Why Engineering Design Matters 69
2.1.1 Why Design Resembles Actual Engineering Practice Yet Has Limitations 70
2.1.2 Why Design is an Important Yet Undervalued Component of Engineering Education 71
2.2 Engineering for Social Justice: Criteria for Engineering Design Initiatives 71
2.2.1 Listening Contextually 74
2.2.2 Identifying Structural Conditions 78
2.2.3 Acknowledging Political Agency and Mobilizing Power 79
2.2.4 Increasing Opportunities and Resources 82
2.2.5 Reducing Imposed Risks and Harms 85
2.2.6 Enhancing Human Capabilities 86
2.3 Social Justice Criteria Combined 88
2.4 Benefits of Integrating SJ in Design 89
2.5 Limitations of Social Justice Criteria 95
Appendix 2.A Engineering for Social Justice Self-Assessment Checklist 98
Appendix 2.B Design for Social Justice Charrette 100
Acknowledgments 102
References 102
3 Social Justice in the Engineering Sciences 107
3.1 Why are the Engineering Sciences the Sacred Cow of the Engineering Curriculum? 108
3.1.1 Engineering Sciences as Shapers of Engineering Identity 108
3.1.2 Pedagogical Tradition in the Engineering Sciences 112
3.2 Why Social Justice is Inherent in Engineering Sciences Course Content 114
3.3 Making Social Justice Visible without Compromising Technical Excellence 116
3.3.1 Social Justice Definition 116
3.3.2 E4SJ Criteria 119
3.4 Examples of Making SJ Visible in the Engineering Sciences 120
3.4.1 E4SJ Criteria Engaged in Introduction to Feedback Control Systems 120
3.4.2 E4SJ Criteria Engaged in Continuous-Time Signals and Systems 127
3.4.3 E4SJ Criteria Engaged in Mass and Energy Balances 128
3.5 Challenges of Integrating Social Justice into the Engineering Sciences 132
3.5.1 Accreditation 132
3.5.2 Student Attitude 133
3.5.3 Faculty Attitude 133
3.6 Opportunities Associated with Integrating Social Justice 135
3.6.1 Student Perspectives on Opportunities 136
3.6.2 Teaching and Scholarship Opportunities for Faculty 139
3.7 Author Narratives on Challenges and Opportunities 141
3.7.1 IFCS Reflection by Dr. Johnson 141
3.7.2 CTSS Reflection by Dr. Huff 142
3.7.2.1 CTSS Follow-Up Reflection by Dr. Huff 143
3.7.3 Mass and Energy Balances Reflection by Dr. Riley 144
3.8 Conclusion 145
Appendix 3.A IFCS Case Study Matrix. The Case Study Options are Mapped to Technical and Social Justice Learning Objectives 146
Appendix 3.B SJ Integration Issues. For Future IFCS Course Iterations, the Key SJ Integration Issues and Their Potential Solutions are Explored 147
Acknowledgments 149
References 149
4 Humanities and Social Sciences in Engineering Education: From Irrelevance to Social Justice 155
4.1 Humanities and Social Sciences, the Engineering Curriculum, and the Distancing of Engineering Education from Pressing Social Problems 157
4.2 The Cold War, the Anti-Technology Movement, and a Marginalized HSS 160
4.2.1 Humanities and Social Sciences in 1960s and 1970s Engineering Education 161
4.2.2 The Emergence and Evolution of STS 162
4.3 It is Time: Integration of Engineering and Social Justice Through the HSS-The Historical Convergence of ABET 2000 and More 163
4.3.1 Changes in the Institutional Landscape 165
4.3.2 Changes in the Scholarly Landscape 166
4.4 Emerging Curricular Innovations 168
4.5 Engineering and Social Justice at Colorado School of Mines 170
4.5.1 Background 170
4.5.2 Description of the Course "Engineering and Social Justice" 171
4.5.3 Course Learning Outcomes 172
4.6 Intercultural Communication at Colorado School of Mines 173
4.6.1 Course Background 174
4.6.2 Course Description 174
4.6.3 Learning Outcomes 177
4.7 Document Design and Graphics at Utah State 177
4.7.1 Course Background 178
4.7.2 Course Description 178
4.7.3 Learning Outcomes 179
4.8 Benefits and Limitations 182
4.8.1 Benefits 182
4.8.2 Limitations 183
Appendix 4.A Privilege Walk Questions 184
Appendix 4.B Privilege by Numbers Activity 187
Appendix 4.C Intercultural Communication Foundational Questions 188
Acknowledgments 189
References 190
5 Transforming Engineering Education and Practice 197
5.1 Practical Guidelines: From Problem Space to Program Space 199
5.1.1 E4SJ in the Problem Space 199
5.1.2 E4SJ in the Course Space 202
5.1.3 E4SJ in Boundary Spaces 206
5.1.4 E4SJ in the Program Space 207
5.2 Broader Implications of E4SJ-Infused Transformations 208
5.2.1 Changing Who Becomes an Engineer 208
5.2.2 Changing the Culture of Engineering 211
5.2.3 From a Culture of Disengagement to One of Greater Public Engagement 215
5.3 Identity Challenges and Inspirations 217
5.3.1 Engineering Student Identity Issues 217
5.3.2 Engineering Faculty Identity Issues 223
Appendix 5.A Assignment and Examples of Problem Rewrites 228
References 237
6 Conclusion: Making Social Justice Visible and Valued 243
6.1 Engineering Justice into Your Career 244
6.1.1 Recognizing Barriers and Opportunities to Making E4SJ Visible 245
6.1.2 Developing Creative Framing on the Road to Tenure and Promotion 246
6.1.3 Engaging Other Stakeholders and Building a Community of Practice 250
6.1.4 Supporting Students interested in E4SJ Beyond the Classroom 250
6.1.5 Enacting E4SJ Outside the Home Institution 252
6.2 Future E4SJ Research Directions 253
6.2.1 Longitudinal Studies 253
6.2.2 Vehicles for Giving Voice to Marginalized Groups 255
References 255
Index 259
Foreword
What does engineering have to do with justice? This is a persistent question, among engineers and non-engineers alike, because we have not yet spent enough time making the connections between these two seemingly disparate spheres of action in society.
In fact, we have assumed, erroneously, that engineering has nothing to do with justice. We have assumed engineering is somehow a neutral actor on the world stage or in local communities, and yet we do not have to look very far to see how engineering decisions both impact and are impacted by justice considerations. For example, in the recent cases of Volkswagen and Fiat Chrysler, software was designed with the explicit purpose of circumventing automobile emissions regulations, with consequences for ambient air quality and human health. We learn that decisions about sourcing and treatment methods in municipal water systems in Flint, MI, and Washington, DC, saved money but increased the lead content of drinking water for residents, disproportionately impacting low income and African American families.
We continue to accept too readily shallow explanations of the relationships between technology and society. We accept the assumption, without thinking, that the engineer just designs the technology, but bears no responsibility for how it is used. Or we accept too readily simplistic statements that give technology a singular and linear role in driving history: the printing press, or the automobile, or the Internet, we say, changed everything. We pay no regard to the historical conditions that gave rise to these technological developments, or specific choices in design and deployment that are not strictly technologically determined but tell rich stories of interplay in complex sociotechnical systems.
We accept too readily the facile self-aggrandizing pronouncements of members of the profession that engineers help society. To truly answer the question of what engineering has to do with justice, we must also be willing to examine closely and carefully what engineering has to do with injustice.
Once we are able to confront the possibilities for engineering to take place within, and contribute to, systems of injustice, we can begin to identify how engineering might be able to contribute to, or even bring about, more just realities for people and the planet.
As the authors of this book put it:
Given the power of engineering, we need an engineering education that is tailored to the great responsibility engineers will assume in transforming life in the rest of the 21st century and beyond. Engineers design, build and operate complex and imposing systems, capable of influencing the lives of millions of people, as well as the allocation of resources (e.g., water, energy), opportunities (e.g., access to work and commerce), risks and harms (e.g., flooding, nuclear disasters, groundwater contamination), and how different social groups receive these differently.
They argue not only that engineers can work for justice, but also that we have a moral responsibility to do so. Of any engineering activity, it is not only possible but also morally imperative to ask the central questions of social justice, who benefits and who suffers:
Who and what is engineering for? From how engineering is taught and practiced, who benefits? Who does not benefit from engineering advances? Who suffers or is constrained by what is created?
As an undergraduate student in the early 1990s, I chose to study engineering out of a deep concern for the environment. Yet I struggled to connect my campus activism on environmental issues with what I learned in class. As the environmental justice movement raised concerns about the inequitable distribution of environmental harms by race and by class, I saw no recognition, let alone a thoughtful response, from the engineering community. This book gives me hope that today's engineering students will have a different experience, where relevant justice concerns are taken up as part and parcel of what engineers do.
Can justice be engineered? As global neoliberal economic and political orders have waxed and then waned over the last several decades, a social justice resistance has emerged to challenge the status quo with increasingly intersectional strategies of solidarity, learning to organize across race, ethnicity, class, gender, sexual orientation, religion, nationality, ability, and many other difference categories. However, engineers remain largely invisible as activists. As American scientists organize a march on the Trump White House and the Administration's utter disregard for science and nature itself, it remains to be seen how many engineers will participate and what perspectives we will bring.
The central problem lies in engineers' tendency to compartmentalize, to separate not only the technical and social in a false dichotomy, but also the professional and the personal, what it means to act as an engineer versus as a citizen. Yet, engineers are whole people, at once moral beings, citizens (of communities, nations, and planets), with obligations to act out of multiple duties in multiple roles. While the primary focus of the book is to scope criteria for engineering actions for social justice in a professional context, it is helpful to keep in mind that engineers also act in the world as whole people, as citizens, and as activists. This line is not cleanly drawn; what compels an engineer to support or oppose a pipeline, for example, is as much technical as it is social, and as much professional as it is personal.
Justice can be engineered, but it can also be sung, danced, written, painted, sculpted, historicized, politicked, philosophized, calculated, experimented, and simply felt. Those of us who work for justice must bring our whole selves to the work, with multiple approaches both instinctual and cerebral, and knowledge drawn from every frame of humanity's collective experience. As an activist and as an engineer, I have challenged pipelines and nuclear power plants, and defended access to reproductive health technologies. It mattered that there was an engineer's body on the line at the women's health clinic, an engineer's wrists handcuffed in arrest for civil disobedience, and an engineer's legs tired from marching. It also mattered that I was undertaking these actions alongside food service workers, lawyers, teachers, clergy people, accountants, garbage haulers, builders, parents, students, artists, and clerical workers, all putting their bodies on the line for the same cause.
How can engineers prepare for a world that demands their engagement with justice? A central argument of this book is that engineering education is presently mismatched with what is needed in engineering practice, and does not prepare engineers to meet the responsibilities of the profession. Today's typical engineering students graduate ill-equipped to properly frame and define engineering problems and solution spaces, to adequately identify the benefits and constraints of engineering, to holistically conceive of sustainability in their work, and to commit fully to dismantle power and privilege in an effort to foster diversity and inclusion.
We learn why it is that US engineering curricula seem to be stuck in remnants of the Cold War Era, revering engineering science as a "sacred cow" and resisting sociotechnical understandings of engineers' work. We learn why current attempts to teach ethics or social dimensions of engineering as one-off courses or modular add-ons are ultimately insufficient for bringing social justice considerations from margin to center in engineering.
how might the engineering curriculum itself, rather than just the extracurricular accouterments, play a role in attracting and keeping highly talented students in engineering? Our approach goes where few have gone before: into the heart and soul of the engineering curriculum, the place where much of a young engineer's identity is forged and formed.
In a chapter-by-chapter examination of aspects of engineering curricula (design, engineering sciences), the authors show us how "Not only can good engineering and social justice exist simultaneously, but it can be argued that the very definition of good engineering is taking into account social justice." In the engineering design space, we see the most sophisticated case studies of how social justice can be explicitly framed (or rendered invisible) throughout the process from problem formulation to implementation. In the discussion of engineering sciences, we gain a historical understanding of why it has been so difficult to integrate social justice considerations into these core "technical" courses, and we see how, in fact, social justice considerations are already endemic in these courses, and how these aspects can be brought to the fore. In the chapter on humanities and social sciences, we again gain historical knowledge of how social aspects of engineering came to be seen as outside the purview of the discipline, and why our present moment is a time ripe for reintegration of these concerns.
What ties together the curricular considerations and the practice of engineering for social justice is a set of considerations around problem definition and human dimensions of engineering activities. By critically interrogating problem definition, the authors operationalize social justice questions within the core of the engineering curriculum:
what is placed into the problem, what and who is left out, who draws the borders of what stays in and is...
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