remaining twelve modules were equally divided amongelectrical, mechanical, and automated manufacturing topics. The students assembled and tested electronicscircuits; designed, made, and tested a small mechanical part; and programmed robots and operated anautomated manufacturing system. The course was taught by six faculty and used six different laboratories. The course provided the students with an engineer’s view of engineering problem solving. Itincluded the engineering approach to the design of products and processes, engineering heuristics, anddiscussions of engineering ethics. The course included structured, engaging laboratory sessions, and thisexperiential learning aspect of the course was particularly well received by the students
. Entrepreneurship12 John Pomery Prof., Management Ethics (Part I)13 Chuck Harrington Technician, ECE Machine Shop ECE Machine Shop14 John Pomery Prof., Management Ethics (Part II)15 Ralph Webb Prof., Communications Technical Presentations16 EPICS Teams Final Report PresentationsPhase 4 - System Design and Development: Starting from week five of the first semester of a project, theProject Team’s goal is to produce a prototype of the hardware/software systems discussed in the proposal.Interaction with the Project Partner continues in order to ensure that the
posting. The culvert allows a 100-year flow to pass, and accommodatesthe one-foot freeboard requirement. The intersection design included improved sightlines andsignage, and grading which eliminated guardrails. The wingwalls were designed to avoid therelocated water line, and riprap was extended to cover the waterline location. A localizeddrainage problem was resolved by extending a corrugated metal pipe to discharge directly intothe stream.ABETA number of ABET outcomes were measured in this class, including ‚ ethics (f): the ASCE/NSPE ethics workshop was utilized as a formal training event. Students complete assignments using NIEE ethics cases. ‚ communication skills (g): the students made a formal design presentation to the senior
education include service-learning, sustainable engi- neering, social responsibility, ethics, and diversity. c American Society for Engineering Education, 2017 Fourth Year Engineering Students’ Descriptions of the Importance of Improving Society Through their Engineering CareersAbstractAs engineering students graduate and enter the workforce, they gain significant responsibility forindividuals and society through their future decisions. Problematically, multiple recent studieshave shown that over their time in college, students tend to become more disengaged from theimpact of their work and their feelings of social responsibility decrease. The question explored inthis research was to determine the
and affective domains in the CEBOK3 [3, 5, 6, 9]. Onereason behind this was the deemed importance of civil engineers internalizing a sense of valuefor the people served by the profession and for their human experience.The CEBOK3TC initially considered including the affective domain for all of the CEBOK3outcomes. While possible, the committee ultimately felt it best to formally introduce theaffective domain into the CEBOK for a selection of outcomes only. The sustainability outcomeand all of the professional outcomes (communication, teamwork and leadership, lifelonglearning, professional attitudes, professional responsibilities, and ethical responsibilities) wereselected by the task committee as being the most appropriate to including in both
• Track II: Construction Management”MS in Technology Management program outcomes [15] are listed as: 1. “Graduates will have knowledge and competency in the field of technology management with an emphasis on engineering technologies. 2. Graduates will have the knowledge and skills necessary to be imaginative, critical thinkers who are able to discover problems and questions, develop logical answers, and apply effective solutions in the practice of technology management. 3. Graduates will have knowledge of ethical behavior in professional positions in all aspects of technology management. 4. Graduates will have competency in the management and leadership of technology in global
. Studentsurveys conducted at two different institutions show why students select to become engineers andtheir preference for the different course components.Introduction “Introduction to Engineering” is a core course given to freshmen students of all engineeringdisciplines. The course aims to familiarize students with the engineering profession, the differentengineering disciplines, the design process for exploratory projects, the work in interdisciplinaryteams, the ethics and professional behavior, the lifelong learning, the written and oral presentationof technical concepts, and problem solving. As curriculum often changes, an online research wasconducted on the most current catalogs (2018-2019) of 182 higher education institutions offeringdegrees in
-defined engineering technology problems appropriate to program educational objectives e. An ability to function effectively as a member or leader on a technical team f. An ability to identify, analyze, and solve broadly-defined engineering technology problems g. An ability to apply written, oral, and graphical communication in both technical and non- technical environments; and an ability to identify and use appropriate technical literature h. An understanding of the need for and an ability to engage in self-directed continuing professional development i. An understanding of and a commitment to address professional and ethical responsibilities including a respect for diversity j. A knowledge of the impact
/her area of work, builds the hardware, tests, and documents his/her work.Throughout the build and test stages, students record video evidence of their work. Near the end of theterm, each student presents (defends) his/her work through an online seminar to other students andfaculty. Each student's capstone project is assessed for integrative learning of the functional areas ofelectrical engineering technology, mastery of the science and technology fundamentals, experimentation,oral and written technical presentations, engineering ethics in design and practice, self-directed learning,and continuous improvement.Through this capstone project experience, the student outcomes are geared to: Work in a team, brainstorm, research, identify, and
businesses. 3. Analyze various energy sources and evaluate their advantages and disadvantages. 4. Calculate energy use, cost, and rate of depletion of energy sources under varying scenarios. 5. Obtain an essential understanding of the political, economic, environmental, and social issues related to energy production and consumption in the contemporary world. 6. Discuss U.S. and global trends on energy and sustainability related to policies, ethics, economics, politics, environment, and society. 7. Identify and locate the appropriate types of information for review, evaluate the information, and use the information effectively, ethically, and legally.DescriptionTopics for the course include the following: The
example study; and, Critically examine how the framework was used in these studies to explore, plan, Page 26.303.3 implement, reflect on, document, and demonstrate research quality.Ethical validation as a sixth validation construct and core aspect of research qualityBased on conversations at the first longitudinal workshop, over the past two years the authorshave collaborated with Dr. Alice Pawley from Purdue University to pursue the idea of ethicalvalidation as an additional, sixth dimension of the quality framework. These explorations wereprompted by the recognition in our own work that: i) ethical considerations extend
blaming the crisis on a recent change of the water sourcefrom Detroit’s water system to the Flint River, the timing of which coincides with the elevatedlead levels. Reading about the revelations in Michigan brings to our minds the discovery andattempted cover-up of lead in the Washington D.C. water supply, which Drs. Donna Riley andYanna Lambrinidou wrote about in their 2015 ASEE paper, “Canons against Cannons? SocialJustice and the Engineering Ethics Imaginary” [5]. Similar to in Washington D.C., Flint Stateofficials are being accused of failing to act soon enough and in the best interests of the citizens.Both of these cases highlight the inherent socio-technical nature of engineered systems – afeature of engineering which, we and many others
engineering through case studies rather than abstract examples helps students see the societal impact of engineering and relate works of engineering to the social, political and cultural contexts in which they arose [5]. For example, in a new lecture developed on the topic of Ethics in Engineering, we cover the story of the 1978 Citicorp Center Crisis. We incorporate video clips from a BBC documentary on this incident, as well as audio from 99 Percent Invisible podcast [6] interviewing Professor David Billington and his former student, Diane Hartley, whose undergraduate thesis work identified the critical flaw in the building’s design. In lecture, we pose students the question of whether the public should have been informed of the impending
leader on a technical team f. An ability to identify, analyze, and solve broadly-defined engineering technology problems g. An ability to apply written, oral, and graphical communication in both technical and non- technical environments; and an ability to identify and use appropriate technical literature h. An understanding of the need for and an ability to engage in self-directed continuing professional development i. An understanding of and a commitment to address professional and ethical responsibilities including a respect for diversity j. A knowledge of the impact of engineering technology solutions in a societal and global context k. A commitment to quality, timeliness, and continuous improvementThe
performance, butdata analysis is ongoing (due to ethics considerations the data were only recently released foranalysis). A major weakness of the blended model is the capacity of students for self-directedlearning and so we have identified a need for the course to address metacognitive outcomes – inessence, the course needs to provide support to help students “learn how to learn”. Some studentsstated that they could not learn using online content and “needed to be taught,” as if this is aninherent fact rather than a skill that can be developed. In particular, sections who traditionallystruggle with this course did not find the online content effective for learning and were lesssatisfied with the blended model. Future course offerings may include a
andcomplete an ethics component related to their studio projects.Preparedness for what lies ahead is essential to making meaning of the ArchitecturalEngineering Technology curriculum and academic experience. Through our third yeardesign studio we successfully help prepare our students for the professional ahead.College Mission:The mission of the College of Engineering, Technology, and Architecture is to a deliver ahigh-quality education and prepare individuals for professional careers in engineering,technology, and architecture, or for further graduate studies. Preparing individuals tofunction as effective members of a global society, our programs promote technicalexcellence, reasoning ability, communication and interpersonal skills, and
career as a structural engineer. She was a founding board member, and the first chair elect of the Hampton Roads Green Building Council. c American Society for Engineering Education, 2020 Engagement in Practice: Adopting Service Learning and Community Engagement as a High Impact Teaching Strategy in Geotechnical EngineeringIntroductionTo meet the high calling of professional engineering ethical cannons and civil engineeringprofession vision to establish safe, healthy, equitable, and vibrant communities; undergraduateeducation programs need to prepare graduates to be well-rounded leaders in planning, design,and construction of public infrastructure and built environment
of engineers as empowered leaders who understand theimplications of their own underlying values, assumptions, and beliefs and theirsubsequent connection to the sustainable design and operation of complex systemsenhances societal sustainability. This paper proposes a case study analysis structuredeveloped to connect the role of the underlying values, ethics, assumptions, and beliefs ofpeople who lead, manage, and work in complex engineering projects towards theenactment of a sustainability culture or a safety culture or both. The proposed case studystructure reinforces engineering education outcomes, the United Nations sustainabledevelopment goals, and Risk Based Process Safety (RBPS) management in order tofurther develop technical and
0.23Q4 My ``hands-on'' skills improved because of the dissection activity. 1.1 0.54Q5 I learned more about manufacturing from the dissection activity. 1.3 0.68Q6 I learned more about economics from the dissection activity. 1.2 0.62Q7 I learned more about ethics in engineering from the dissection activity. 0.0 0.89Q8 My future designs will be different because of what I learned in the dissection 0.5 0.72 activity.Q9 Preparing the dissection journal helped me to become a better technical writer. 0.3 1.12Q10 Preparing the dissection journal helped me to better understand my product's 1.3 0.46 operation and design.Q11 I learned more about
information; determine any restrictions, limitations, and/or constraints; develop aresearch topic list and organize the project using project management tools and techniques. Allof these tasks were to be performed with consideration given to the economic, social, political,ethical, technical, health, and safety aspects of the project environment.In the Second IPR students developed a few courses of action (COAs) and used a specificprocedure, modeled after the military decision making process (MDMP), to evaluate the COAsand select the best one. Students performed some preliminary calculations to help determine thefeasibility of their COAs.For the third IPR, students provided their design description and specifications and performed allthe necessary
Islands. The NCEES Strategic Plan describes several issues that representchallenges to maintaining an effective licensure process. The document, which is periodicallyupdated by the board of directors, specifies goals associated with each of the issues and describesstrategies for achieving these goals [NCEES, 2012]. Vision The vision of NCEES is to provide leadership in professional licensure of engineers and surveyors through excellence in uniform laws, licensing standards, and professional ethics for the protection of the public health, safety, and welfare and to shape the future of professional licensure. Mission The mission of NCEES is to advance licensure for engineers and surveyors in order to
Engineers.Dr. Carla B. Zoltowski, Purdue University, West Lafayette Dr. Carla B. Zoltowski, Ph.D., is education administrator of the EPICS Program at Purdue University. She received her B.S. and M.S. in Electrical Jngineering and Ph.D. in Engineering Education all from Purdue University. She has served as a lecturer in Purdue’s School of Electrical and Computer Engineering. Dr. Zoltowski’s academic and research interests include human-centered design learning and assessment, service-learning, ethical reasoning assessment, leadership, and assistive technology. Page 23.151.1 c American
can then build upon the designskills in the second semester capstone course via a real world engineering problem.Three-semester capstone experiences/courses, though uncommon in undergraduate programs,tend to be used when testing and prototyping are required. This approach is in place at the UnitedStates Military Academy (USMA) where the three-semester capstone model begins with a coursethat does not include an official senior capstone project.23 Instead, the course emphasizes the“soft” sciences, including “design process, methodology, project management, communications,economics and ethics.”23 Students are introduced to the engineering design process andmethodology, and they apply this knowledge to their junior projects before being immersed
professionals.23,24,25 Some of the areas included are: oral communication, writtencommunication, science, mathematics, ethics/social responsibility, teamwork/collaboration,creativity/innovation, information technology application, professionalism/work ethic, self-direction, analytical thinking, reading comprehension, and critical thinking/problem solving.These go beyond basic knowledge in one’s area of expertise and reflect important skillsnecessary in today’s workforce as well as the workforce of tomorrow.23,25,26 These also representareas of weaknesses frequently cited by human resource personnel and senior executives withrespect to new college hires.24 There is definitely a need to provide opportunities for students todevelop these skills and to
mathematics, science and engineering. b. an ability to design and conductexperiments as well as analyze and interpret data. c. an ability to design a system, component, orprocess to meet desired needs within realistic constraints such as economic, environmental,social, political, ethical, health and safety, manufacturability, and sustainability. d. an ability tofunction on multidisciplinary teams. e. an ability to identify, formulate, and solve engineeringproblems. f. an understanding of professional and ethical responsibility. g. an ability tocommunicate effectively. h. the broad education necessary to understand the impact ofengineering solutions in a global, economic, environmental, and societal context. i. a recognitionof the need for and an
emphasizes safety, ethics and the environment. Thefact that it is located a ninety minute’s drive from the University of Tulsa makes it anexcellent way to blend an introduction to engineering with current events. The Tar Creek Superfund site is named after a creek that runs through the areathen into the Neosho River and on to Grand Lake. The environmental disaster is theresult of abandoned lead and zinc mines in a 40 square mile area near Picher, OK. TarCreek is only a small part of what was originally known as the Tri-State Mining Districtin Oklahoma, Kansas and Missouri where lead and zinc reserves were first discovered in1891 and mined heavily until 1947. At the peak of activity, 23 million gallons of acidicwater were pumped out of the
mathematics,science, engineering and technology,c. an ability to conduct, analyze and interpret experiments and apply experimental results toimprove processes,d. an ability to apply creativity in the design of systems, components or processes appropriate toprogram objectives,e. an ability to function effectively on teams,f. an ability to identify, analyze and solve technical problems,g. an ability to communicate effectively,h. a recognition of the need for, and an ability to engage in lifelong learning,i. an ability to understand professional, ethical and social responsibilities,j. a respect for diversity and a knowledge of contemporary professional, societal and globalissues, andk. a commitment to quality, timeliness, and continuous improvement.Only
senior level engineering courses. In addition to the above, the FE exam iscurrently under revision by the National Council of Examiners for Engineering and Surveying toincrease its utility as a program evaluation tool.FE exam results may be used to assess the following subject areas as specified in the ABETcriterion.a) An ability to apply knowledge of mathematics, science and engineering.b) An ability to design and conduct experiments, as well as to analyze and interpret datac) An ability to design a system, component, or process to meet desired needsd) An ability to identify, formulate and solve engineering problemse) An understanding of professional and ethical responsibilityf) An ability to use the techniques, skills
multi-disciplinary teams e. An ability to identify, formulate, and solve engineering problems f. An understanding of professional ethical responsibilityg. An ability to communicate effectivelyh. A broad education to understand the impact of engineering in a societal context i. A recognition of the need for, and ability to engage in life-long learning j. A knowledge of contemporary issuesk. An ability to use modern engineering tools for the practice of engineering l. Sufficient knowledge about chemistry and calculus- based physics to have some depth in at least one of these areas Page 9.168.7 Proceedings of the 2004
engineers in practice with a very limited knowledge of the theory and application ofenergy conversion devices. This paper highlights a required undergraduate course on energysystems and conversion for electrical engineering (EE) students at Penn State University -Harrisburg. The new course format adds components that are not typically included in thestudents’ exposure to the subject. It guides students to explore various energy sources,conversion technologies, and highlights economic, environmental, sustainability, ethical, healthand safety, social, and political issues in energy use.IntroductionMany electrical engineering (EE) programs traditionally include an energy conversion course inthe program requirements for the undergraduate degree. This