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
WorkEnvironments. Students are required to complete a minimum of three out of the four courses.The Manufacturing Operations courses were originally designed for engineers without anybackground in industrial engineering topics, such as mechanical or chemical engineers whoseprimary job responsibilities are in the area of production operations.The professional practice component includes courses in Project Management, EngineeringDesign, and a course in Law, Ethics and the Environment. The course in project management isdesigned to provide the students with the necessary skills to manage engineering projects. Thestudent is expected to use these concepts when planning and completing the capstone project.Law, Ethics, and the Environment is a discussion-oriented
students in a small cohortseminar course, which has several purposes. Led by the cohort instructor, it discussesprofessional topics such as ethics and career paths, covers research preparation includingliterature searching, research group dynamics and problem solving, has the students practice oraland written communication skills, and, importantly, introduces the student to various researchopportunities in the Department. After selecting three labs to investigate and visit, studentschoose a research project that becomes the basis for their senior thesis and then their master'sthesis. Table II is a partial list of the topics covered in this second-year cohort seminar. Table II – Topics Covered in the 2nd Year Cohort Seminar
design decisions and challenges faced by NASA •Project Management and Sub -Company engineers between 1972 and 1986. •Ethics •Risk and Safety Figure 1 To provide an example, we discuss herein the details of the Design of Field Joint for STS51-L Case Study. The case study was developed so that it traced the technical, business, ethical,and managerial issues that were debated and resolved in the design of the
2 12 14 Broad Education 10 3 13 Business Knowledge 9 4 13 Problem-Solving 7 6 13 Communications 4 8 12 Ethics/Morality 5 7 12 Learn to Learn/Lifelong Learning 8 2 10 Creativity 7 0 7
you a cut above your peers and allow you to perform more interesting work. In addition agraduate degree requires you to perform research and publish a thesis. This independent workdistinguishes those with a graduate degree as one who can think independently and can expressthose thoughts in a coherent manner. The technical gains that are made in the pursuit of thegraduate education make clear the limits of engineering analysis and design. This instills a betterunderstanding of the ethical responsibilities associated with creating solutions for the public. Forthese reasons the Undergrad Only College is promoting graduate education.Currently the Undergrad Only College fosters the opportunity for undergraduate research with afaculty mentor. This
engineering-technology programs be able to demonstrate that theirgraduates have, among other capabilities, an ability to function on multi-disciplinary terms, anunderstanding of professional and ethical responsibility, an ability to communicate effectively,the broad education necessary to understand the impact of engineering solutions in aglobal/societal context, and a knowledge of contemporary issues.It is in meeting these challenges that service-learning distinguishes itself from other forms ofexperimental learning in engineering. Service-learning offers engineering-technology studentsan opportunity to practice engineering design and apply technology by engaging students in“activities that address human and community needs” and in so doing, afford
added and removed since the inception of the course.For example, linear regression was covered the first year, but was removed in subsequent yearssince essentially the same material is covered in Stoichiometry. Experimental design wasintroduced, including factorial analysis, but was removed in 1996 to make room for moreengineering economics and an expansion of the design project. One-hour lectures on safety andengineering ethics are also incorporated as time allows. The majority of the class, however, isdevoted to the five areas described above. Statistics for Engineering and the Sciences byMendenhall and Sincich1 is currently the textbook for this course.Descriptive statistics, probability fundamentals and probability distributions are covered
experiential learning through theiranalysis and classroom discussion.Concern for popular press interpretations led to discussion of workplace ethics. Ethics becomes Page 2.180.3a critical topic when people are going to discuss injuries and errors, and costs to avoid them.Engineers and managers should be aware of the total costs of decisions they make.Last, an important purpose was the introduction of a vocabulary and a way of looking at theworkplace. This was an additional concern in developing class lectures and the class project. Asone purpose of the course was to provide a background to students who would work withindustrial engineers and ergonomists
restructuring their programs, this presentation attempts to extendthat effort to a much wider community through the American Society for Engineering Education.UNIVERSITIES Each university should identify and establish a long-range global vision through self-examination of its academic activities, indicating their strengths and weaknesses. In the area ofcurricula enhancement, strategic planning must accentuate courses including foreign languages,cultural development, social and political sciences, psychology, behavioral science, businessmanagement and ethics. It is recognized that many of these courses can be included withinABET guidelines as well as within a general education core which is required at manyuniversities. However, the breadth
environmental component is the centralfocus of learning (law, ethics, geography, and international relations) to achieve a desiredlevel of competence across the domains related to national security and technology.Finally, cadets will be afforded courses from a rich menu of electives allowing them toadd some more breadth as well as specific depth in an area of special interest.Process of Cadet ExperiencesIn order to gain knowledge across two major realms of academic endeavor (technologyand humanities), cadets first develop an awareness of environmental issues via the corecurriculum. The technology component is built upon the core courses inmathematics, chemistry, and physics. They learn key elements of mathematicalformulation, the fundamental laws of
Research Overviews Part I 4.93 0.27 DAY 1: ATP-Bio Research Overviews Part II (hands on) 4.79 0.43 DAY 1: REU Alumni Panel 4.93 0.27 DAY 1: How to Read a Scientific Paper 4.79 0.43 DAY 2: Lab tours 4.64 0.63 DAY 2: Ethical Lab and Data Practices 4.93 0.27 DAY 2: Scholar Panel 4.86 0.53 Section 2Rate the following experiences from very poor (1) to excellent (5)Survey Item
groupdiscussions, Mentimeter online surveys to collect immediate feedback from the whole group, andnetworking breaks. Lunch was provided on both days and dinner was provided on Day 1.Day 1 was dedicated to understanding perspectives from stakeholders regarding electricityaccess and sustainable business. Keynote speakers Mou Riiny, CEO of SunGate Solar in SouthSudan and Dr. June Lukuyu, Assistant Professor of Electrical and Computer Engineering at theUniversity of Washington shared insights on the challenges of working in South Sudan andUganda. Themed discussions focused on enhancing the classroom experience and sustainable,ethical, and beneficial projects as well as a student panel. Table 2 shows the schedule for Day 1:Table 2: Day 1 Schedule Day 1
. Her research interests include empathy, design education, ethics education and community engagement in engineering. She currently teaches Cornerstone of Engineering, a first-year two-semester course series that integrates computer programming, computer aided design, ethics and the engineering design process within a project based learning environment. She was previously an engineering education postdoctoral fellow at Wake Forest University supporting curriculum development around ethics/character education. ©American Society for Engineering Education, 2024 Student Engagement – IoT-Based Learning Materials and ProjectsAbstractEven with a return to in-person learning by many institutions
. She holds graduate degrees in engineering and business administration from the University of Michigan, and began teDr. Katie Snyder, University of Michigan Dr. Snyder is a lecturer for the Program in Technical Communication at the University of Michigan. She teaches design, ethics, and technical communication as social justice to students in the College of Engineering.Sara Elizabeth Eskandari ©American Society for Engineering Education, 2024Connecting Campus and Community: applying virtual reality technologies to facilitate energy justice and emerging technology literacy Aditi Verma, Sara Eskandari, Kellie Grasman, Katie SnyderIntroductionThe history of energy technology
became more aware of some issues in code of ethics for engineers6 after working onthese projects. They had better understanding of why engineers shall undertake assignments onlywhen qualified by education or experience in the specific technical fields involved and whyengineers shall continue their professional development throughout their careers.Discussion on freshmen design projectThe freshmen course was team taught by two of our department’s professors and we rotatedteaching the course every year with other two, so a total of four professors taught the lecture intwo years. We all agree that spaghetti bridge was a beneficial cornerstone project which enabledfreshmen students to learn about the design process and work together in a team. It
methods to qualitatively andinductively study how and why teams used constraints to shape their final design. Videoobservations and interview sessions were transcribed and open coded for elements representingconstraints as part of the design process. The video data of early team meetings were coded forconstraints that arose as part of the conversation in ideation/ brainstorming sessions. Weconstructed an overall typology of constraints after the initial analysis of what teams, in general,identified as constraints when thinking of final design solutions. The general design constraintssurrounding engineering design projects were categorized as Manufacturability, Health andSafety, Life Cycle, Ethical, Ergonomic, and Quality. Constraints that arose
CET 4415 Foundation Design 3 Ethics: CET 4402 Engineering Ethics 1 General: MGNT 3105 Management and Org. Behavior 3 CET 4405 Mathematical Modeling in CET 3 Page 22.1202.4 Table 2. Southern Polytechnic State University B.S. Civil Engineering Technology 2010 – 2011 Curriculum
engineering and business foci. This paper presents the pilot comparativeresearch results from implementation of the two domain specific indices. Methodologically, theengineering global preparedness index (EGPI) was designed, reliability and validity tested firstand then from these results the instrument was adapted a second time to reflect business-focuseditems. The following seven subscales were utilized in creation of the two global preparednessindices. Ethic of Responsibility: Deep personal and care concern for people in all parts of the world; sees moral responsibility to improve conditions and take action. Cultural Pluralism: Appreciation of diversity of cultures and dispositions: belief that all have
knowledge ability to handle open-ended problems Practical orientation (academics) ability to handle poorly-defined problems Commercial orientation creativity and innovation Introspective nature, modesty Decision-making, including problem-solving Oral and written communication skills Graphical communication skills Integrative skills Discipline,Work ethic. Ability to employ IT Obsolescence (remedy : Continuing Education) Inter-personal skills Public perception and
attributes of a global engineeremerged. These are:1. Demonstrates an understanding of engineering, science, and mathematics fundamentals2. Demonstrates an understanding of political, social, and economic perspectives3. Demonstrates an understanding of information technology, digital competency, and information literacy4. Demonstrates an understanding of stages/phases of product lifecycle (design, prototyping, testing, production, distribution channels, supplier management, etc.)5. Demonstrates an understanding of project planning, management, and the impacts of projects on various stakeholder groups (project team members, project sponsor, project client, end- users, etc.)6. Demonstrates an understanding of the ethical and business norms
, • Sustainability, • Manufacturability, • Ethics, • Health and safety, • Society, and • Politics.In response, the College of Science and Engineering at UMD has developed the course Engr 4001:Engineering Professionalism, to address the relationship between these topics and engineeringpractice. Offered for the first time in Spring, 2005, this course will embed an existing technicalwriting course for engineering students, to teach students both the importance of the professionaltopics above and the skills needed to document technical material in a professional manner.Engineering Professionalism is a design oriented class, required as a pre- or co-requisite forcapstone design courses in all