Integrating Industry Experts into Engineering Education: Case Study

An advanced grade control course is described as a model for industry involvement in special topics educational offerings. Several unique aspects of these courses were the lack of textbooks on the topic, little previously developed course content, and the lack of faculty expertise in the subject area. In light of these challenges the course was successfully implemented by selecting industry experts and coordinating their efforts into a cohesive learning experience. The writers worked with representatives from McAninch Corporation, Ziegler Caterpillar, and other organizations to develop the courses at Iowa State University. Since the courses were the first known offerings of their kind, qualitative interviews were conducted to identify appropriate educational outcomes and objectives necessary to expedite the process of becoming an advanced grade control specialist. These outcomes and objectives can be applied to a variety of educational delivery systems and were helpful in determining suitable course material, topics, and structure.     

Enhancing Civil Engineering Education and ABET Criteria through Practical Experience

The Accreditation Board for Engineering and Technology (ABET) has adopted a revised set of criteria for accrediting engineering programs. Nevertheless, as in the past, civil engineering departments will be required to demonstrate proficiency in specific subject areas which are included in the ABET program criteria. This paper investigates how civil engineering students at Lamar University improved their understanding of various subject areas required by ABET and listed in the Program Criteria for Civil and Similarly Named Engineering Programs and the General Criteria (professional component) by being involved with cooperative, part-time, and summer work experiences. In particular, the findings suggest that both undergraduate and graduate students believe that three areas have been greatly enhanced with engineering work. They include structural engineering, project management/scheduling and estimating, and teamwork. In addition, undergraduates perceive that their understanding of health and safety issues and ethical considerations has also increased. In contrast, graduate students believe that their knowledge of hydraulics, hydrology, and water resources, constructability, and economic factors has been enhanced by civil engineering work experiences.     

Education for Sustainability: Experiences from Greece

Increasing awareness of sustainability has affected civil engineering education, making it more complex and demonstrating the connections to economic, social, and technological problems. Environmental consciousness in the Organization for Economic Cooperation and Development countries is growing, but in Greece the subject still tends to remain a marginalized and compartmentalized corner of educational systems. Environmental education means more than transmitting knowledge about the environment; it is also about educating for sustainable development. One of the main issues involved is changing people’s attitudes, values, behavior, and consumption patterns. University education in Greece aims to educate engineers so that besides acquiring theoretical knowledge they also learn to show personal responsibility and are motivated to act sustainably. Educating for sustainable development also entails the development of critical capacities and the necessary skills to be able to identify and formulate problems. This paper outlines the way in which a multidisciplinary approach to teaching sustainability has been embodied in the Civil Engineering Department at the University of Thessaly, Greece. More specifically, it describes a course to develop a comprehensive information technology-based learning resource comprising a set of multidisciplinary case studies and support material in order to aid engineering students in understanding the sustainability concepts and how solutions can be developed.     

Integrating Sustainable Design into Architectural Engineering Education: UNL-AE Program

Given the profound impact of the built environment on the resources of the earth, a growing number of institutions of higher education are preparing engineers to make sustainable design a standard in the construction industry. This paper looks at the diverse ways in which education in sustainable design can be integrated into engineering curricula using the architectural engineering (AE) program at the University of Nebraska–Lincoln (UNL) as a case study example. The UNL program is unique in that it prepares students for careers in sustainable development through a curriculum that promotes both traditional and hands-on, experiential learning. Through coursework, research, workshops, student competitions, and even interaction with the UNL engineering facility, students learn how to make our built environment more sustainable. A key facet of this program is to connect the institution with the local community and industry to give students an opportunity to apply skills learned in the classroom to real-world problems in professional settings. Hence, this “green” integration actually takes place on two levels, within the UNL curriculum itself and within the larger context of the community and industry. Together, academia, the industry, and the community are preparing engineers to help ensure a more sustainable future for our world.     

Introducing Students to Professional Practice in Civil Engineering

This paper describes a module that was introduced into a civil engineering degree program with the help of professional engineers. The aim was to develop a bridge between the world of learning and professional practice by putting students in the role of consulting engineers working with industry to produce a feasible solution to a real inquiry from a client. The module is placed in context by comparing the goals of accredited civil engineering programs in the United Kingdom and America, by describing how it is linked to the degree program and by explaining the matrix developed to identify the skills the students needed to demonstrate their ability to practice as professional engineers. Details of the module are given with examples of student work and feedback.     

Incorporating the Social Dimension of Sustainability into Civil Engineering Education

Social sustainability is often overlooked in favor of environmental and economic considerations in civil engineering (CE) education. To help address this issue, this paper presents two instructional approaches to introduce students to social sustainability by using a conceptual model derived from four dimensions of social sustainability: community involvement, corporate social responsibility, safety through design, and social design. In the first instructional approach, the instructor is the primary facilitator; in the second approach, the students become the experts, sharing their knowledge with their peers. Methods to assess student understanding of these dimensions, such as concept mapping, are proposed. By providing the conceptual model and methods to teach it, this paper is for the purpose of assisting those teaching the social dimensions of sustainability to CE students, who will gain an understanding of how their technical decisions affect social sustainability.     

Integrating Management Breadth in Civil Engineering Education

At the beginning of the 21st century, there is a wider awareness that the civil engineering industry has become a global industry. The rapid increase in foreign ownership of firms in the United States along with the globalization of economic markets is reminding professionals that they must be aware of global events before they impact local operating conditions. In response to these developments, university programs must begin to broaden their focus to include subjects that address new economy realities. Specifically, the time to begin exposing students to management topics such as entrepreneurship, financial management, and global economics has arrived. If the civil engineering industry is going to evolve into a new economy business, it will require individuals who are as comfortable with the financial and technological components of the business as they are with design or construction fundamentals.     

Education for Sustainable Development and Civil Engineering for Children: Interactive Model Case Study

This paper describes the further development of a previously reported interactive model developed to enhance the understanding of the concept of sustainable development (SD) and the role of civil engineers among school children. The earlier model and associated teaching materials for a lesson based around a river valley flooding problem for small groups of 6th grade pupils were modified and trialed with a larger group of 8th grade pupils. Subsequently a further lesson using the same model framework was developed based around groundwater contamination from landfill leachate. This was trialed with small groups of both 6th and 8th grade pupils. A competitive element in landfill liner design was introduced into the lessons. The model and lessons received praise and were shown to achieve their aims of teaching SD in a memorable and practical context and explaining something of civil engineering, though the smaller group lessons were found to be much more successful than the larger group lesson.     

Construction Engineering Education: History and Challenge

Engineering has been defined as the vocation of guiding nature to produce something needed or desired. A historical review of the evolution of engineering and engineering education leads to the conclusion that sustainability in design and construction requires the engineer to approach nature with imagination and humility. As part of its Engineer of 2020 initiative, the National Academy of Engineering in 2001 questioned how engineering education should evolve to prepare the profession for the future. From that work and efforts by ASCE, it is clear that an educational system that fails to provide engineers with a broad base of learning results in graduates ill-prepared to enter professional practice. The National Academy Engineer of 2020 work and ASCE Policy Statement 465, “Academic Prerequisites for Licensure and Professional Practice,” echo a call to adopt a new educational model. The new model seeks to strengthen the cognitive ability of engineers and leads them to practices that work in cooperation and harmony with nature for the benefit of society.     

Civil Engineering Education and Complex Systems

Civil engineering is an interdisciplinary field, and most of the projects designed and built represent very complex systems, both during the construction phase and in the built phase. This research describes how a course in land development that included engineering design elements, lectures that also touched on other related fields, and a field journal assignment at a “green” (sustainable) construction site facilitated students’ understanding of complex systems. Results suggest that this course design facilitates the development of students’ proficiencies in several skill sets, and can increase students’ understanding of the complexity involved in civil engineering projects.     

Incorporation of Sustainability Concepts into a Civil Engineering Curriculum

The need arises to equip engineering students with a wider horizon of concepts in terms of environmental, economic, and social attributes, for decision making of sensitive to sustainability issues. Pedagogic frameworks have to address a multidisciplinary analysis of sustainability. This paper addresses the rationale behind the recent integration of sustainability concepts into an undergraduate civil engineering curriculum in Hong Kong. Incentives and barriers for implementation of the curriculum are addressed. A team-based design project with a problem-based learning approach is highlighted. The initial results of stakeholder evaluations suggested that multidisciplinary skills developed during the learning process might contribute significantly to pertinent knowledge on sustainability.     

General Education for Civil Engineers: Sustainable Development

The ABET criteria for engineering programs no longer has a requirement for humanities and social sciences but instead requires a general education component that complements the technical component of the curriculum. Achievement of the outcomes called for in the ABET criteria and the ability to apply the constraints listed in ABET Criterion 3 can be facilitated by a well-designed general education component. The old humanities and social science components that many programs still have would probably allow most programs to meet the current criteria but the requirement for general education offers an opportunity to improve the overall educational experience for all civil engineers. One approach to general education for civil engineers would be to incorporate a theme and a case is made that sustainability and sustainable development is a good theme for a civil engineering program.     

Industrially Sponsored Senior Capstone Experience: Program Implementation and Assessment

The Accreditation Board for Engineering and Technology (ABET) 2000 requires that students participate in a major design experience prior to graduation. A well-planned senior design capstone program will satisfy this criterion while meeting the Criterion 3 (a–k) program outcomes. Seattle University has an industrially sponsored, year-long, senior design program that has been in existence for the past 20 years. In addition to applying the knowledge of mathematics, science, and engineering to solve a real-life engineering problem, students develop the soft skills such as project management, leadership, team work, written and oral communication, and professional networking which are important for a successful career. This paper describes the program within the Civil and Environmental Engineering department, lists the various tools used to assess the program outcomes, and includes assessment of the program by sponsoring agencies, alumni, and reflection by faculty.     

Incorporating a Sustainability Module into First-Year Courses for Civil and Environmental Engineering Students

As articulated in the Bodies of Knowledge for Civil Engineering and Environmental Engineering, all civil and environmental engineering students should be introduced to the concept of sustainability. A sustainability module was added into two required first-year, 1-credit introductory courses, one for civil engineering and one for environmental engineering. Data from approximately 150 students were collected. Student attitudes about sustainability were evaluated using a written survey. There was greater initial knowledge of sustainability and positive attitudes toward sustainability among students enrolled in the environmental engineering course compared with those in the civil engineering course, but this did not translate into better performance on the related homework assignment. There was strong evidence that the inclusion of the sustainability module encouraged the students to consider sustainability in subsequent course assignments, even when not explicitly prompted to do so. This indicates that early emphasis of sustainability may affect the students’ concepts of its importance in civil and environmental engineering.     

Model for Faculty, Student, and Practitioner Development in Sustainability Engineering through an Integrated Design Experience

Sustainable development and the green building movement have been adopted faster than any recent movement in the engineering field. With over 40% of the total U.S. energy usage servicing the operation of commercial and residential buildings, this trend is well founded. Recent surveys of the industry indicate that within 4 to 5?years, a vast majority of engineering firms expect their business will be significantly dedicated to green building designs. In contrast, current academic institutions are not well positioned to prepare young engineers for this challenge, and current faculty are not well trained in the tenets of sustainability or the roles of engineers in this movement. Change must occur if the engineering and design professions are to remain relevant and responsive to societal needs. To accommodate this challenge, the writers have designed and implemented the Integrated Design Experience (IDeX), a capstone course in which undergraduate and graduate students interact with faculty and practitioners on real projects with challenging needs in sustainability. The course is designed to provide an actual and virtual space for the multitude of disciplines to interact on real designs to foster both improved research and outreach efforts. Expected outcomes from the course include both student and faculty learning on the methods and value of sustainable design as well as the development of an interdisciplinary network of faculty and practitioners involved in sustainable design. Learning is being evaluated using a continuous authentic assessment of design products. First-year results indicate that students learned interdisciplinary teamwork and communication skills, and they see substantial value in the authentic design experience. In future years, the development of the interdisciplinary network will be tracked by using social networking tools and by assessing faculty attitudes toward involvement in IDeX. Both metrics will be investigated using the diffusions of innovation framework. The combined evaluation will lead to an in-depth understanding of how the IDeX model can be scaled and replicated at other institutions.     

Sustainability Education: Approaches for Incorporating Sustainability into the Undergraduate Curriculum

The objectives of this study were to describe two approaches to incorporating sustainability into the undergraduate engineering curricula and to list a variety of existing course resources that can easily be adopted or adapted by science and engineering faculty for this purpose. The two approaches described are (1)?redesigning existing courses through development of new curricular materials that still meet the objectives of the original course and (2)?developing upper division elective courses that address specific topics related to sustainability, such as manufacturing or life-cycle assessment, in depth. Case studies of three courses—Green Industrial Organic Chemistry, Environmentally Conscious Design and Manufacturing (Kettering University), and Sustainable Engineering (University of Oklahoma)—are presented. Assessment results from Green Industrial Organic Chemistry indicate that alternative curricular materials incorporating green chemistry can be used to meet the learning objectives of more traditional courses in organic chemistry, which are already required for many engineering majors. Environmentally Conscious Design and Manufacturing assessment data indicate that students increased their knowledge and application of industrial ecology topics as a result of taking the course. Preliminary assessment data from Sustainable Engineering indicate that students applied concepts of global resource reserves, sustainable growth and development, design for environment, and life-cycle assessment in their course work or employment approximately 1?year after finishing the course.     

Student Learning in a Multidisciplinary Sustainable Engineering Course

An existing multidisciplinary course on sustainable engineering in developing societies was expanded to include sustainability issues and challenges faced in the developed world. The new course consisted of independent modules on general background, sustainability concepts and tools, sustainable water and waste systems, sustainable energy systems, sustainable agricultural and food systems, and sustainable building systems. The course included a semester-long project experience conducted in interdisciplinary teams. Projects were sourced from local businesses and institutions or from organizations involved in international development. Course evaluation included an end-of-semester self-assessment by students and an analysis of project reports. Thirteen out of 18 students surveyed (72%) agreed that their ability to consider techno-economic, environmental, and social aspects of sustainability was improved as a result of the course. An improved student understanding of aspects of sustainability and its measures was also evident in student project reports.     

On the Job versus Graduate School Training of Forensic Engineers—An Instructor and Professional Engineer’s View

This paper provides insights from a graduate forensic engineering course for civil engineers and analyses its success from the instructor and student perspectives. The objective of the study was to evaluate teaching methods and settings for training of forensic engineers in light of new body of knowledge needs for the profession. The assessment methodology used student feedback before, during, and after the semester-long course and the instructor’s observations and prior forensic engineering consulting experience. The course was structured around student learning objectives that paralleled actual engineer training in professional consulting firms. The students used hands-on learning, field investigations, library-based research, and report writing. Focus was placed on learning basic research skills and applying scientific method which were at low levels among students. This is of concern to the profession as these skills, along with analytical ability, form part of the basic tool set of most engineers. By the end of the course, writing and review skills had improved significantly and student perceptions of the specialized skills turned more favorable. The students overwhelmingly appreciated inclusion of guest lectures by forensic engineers to demonstrate the relevance of this field. It was concluded that inadequate technical writing and reading skills, symptomatic of students in many engineering programs can be corrected through a forensic engineering course.     

Environmental Process Engineering: Building Capacity for Sustainability

The chronic problems resulting from unsustainable production and consumption, as well as acute environmental problems from accidents and inadequate waste treatment, are continuing challenges for environmental engineering professionals. This paper explores the change in the role of educators from transferring knowledge to building the capacity of future engineers to meet these challenges. Progress in understanding and managing the interactions between the industrial, natural, and social systems for sustainable development is being made in a number of disciplines. Help in distilling this knowledge for environmental engineers can come from environmental process engineering (EPE) as a subdiscipline of chemical and environmental engineering. By applying the fundamentals of process engineering to environmental problems, EPE can help bundle together the diverse work from different environmental compartments. Many references to EPE can be found in university programs in Germany and the United States, but what is meant by EPE is not usually explicitly defined, and often refers to a collection of environmental unit operations. An expanded definition of EPE in the context of the current reform movements in engineering education is proposed. Trends in education and research in Germany and the United States are discussed within the framework of the societal and industrial transition toward sustainable development.     

Sustainability in Construction Education

It is widely recognized that sustainability should be incorporated into engineering education. To prepare students with sustainability knowledge and techniques, engineering educators need to develop appropriate class contents and effective teaching techniques. Based on experience from developing and teaching a sustainability course within the construction management program in the civil engineering department, this paper discusses the process of identifying sustainability knowledge areas, course planning, and lessons learned from the class. The paper also includes main class topics as well as students’ feedbacks, both of which may serve as a starting point for continuous improvement of sustainability education in construction.