best solutions. They will learn theimportance of evaluation and how it is an inherent part of the engineering process. Topics suchas product safety and liability, professional ethics and environmental considerations will also becovered. The students will also explore engineering design and analysis through a three-weekmechatronic system project. During this project, students will learn a new technology throughanalysis of past product designs, be trained in that technology, define and develop a new product,and produce a presentation on that new product.Assessment of the Pilot ProgramAssessment of the program will consist of two parts: the courses and the program. Two surveyshave been developed and will be administered to assess the
curricula by major professor and cohort group manager • Formal planning of research with Microsoft Project, including monthly reporting • Peer mentoring on research planning in student-led weekly group meetings • Research progress summary reports by semester • Resume and curriculum plan updates by semester • Summer short courses on narrow topics using industrial style scheduling • Research presentations on current hot issues using industrial format reporting • Solicitation-style candidacy exam process, with open written source access • Creativity and team building through industrial-style one to two day seminars • Formal summer classes in Ethics, and Proposal Writing and Management • Formal fall/spring
collaborativecourse were described on the poster. (see Figure 1). Figure 1. Course information posterEach faculty member taught the issues related to their discipline. The specific topicscovered in the course were; Values of designers and design process, Issues facingLandscape Architecture, Problems from an Interior Design perspective, Tools utilized Page 11.284.4for Communications in the Built Environment, Ethics, Professionalism, Values andLegal obligations, Professional Interrelationships, and Technology’s impact on the futureof Design Professionals. Presentations were rotated in sequenced to have each disciplinepresent once, then
the specific technical course degreeoffering. Each consecutive course will build on the soft skills “put-them-to-work” within aspecific technology genre. A good avenue for practicing and assessing soft skills within aspecific technology degree is through group projects, critiques, discussions and “real-world”projects, including issues of ethics, and allowing students to practice critical thinking, problemsolving, creativity, and communication skills.Evaluating Aesthetic Expertise; another level to assessment of rapidly changing technologyThe need for creativity and professional aesthetic competence is prominent in ComputerGraphics and should be addressed and built upon in each sequential course. This also provides abasis for establishing
in2000 to help developing areas worldwide with their engineering needs, while involving andtraining internationally responsible engineering students. EWB–USA projects involve the designand construction of water, waste-water, sanitation, energy, and shelter systems. These projectsare initiated by, and completed with, contributions from the host community, which is trained tooperate the systems independently without external assistance. The projects are conducted bygroups of students under the supervision of faculty and professional engineering mentors. Byinvolving students in every step of the process, the program maximizes their learning andawareness of the social, economic, environmental, political, ethical, and cultural impacts ofengineering
Page 11.274.2designing and developing the software required for smooth functioning of the BillikenSat1 inorbit. (Exploded View)Figure 1: External Structure of the BillikenSat 1. It is made of Aluminum 6061 and weighs 254gramsThrough this interdisciplinary senior capstone design program, it is our intention to provideundergraduate students with the benefit of experiencing real-life issues– such as designing asystem to meet realistic constraints such as economic, manufacturability, sustainability andprofessional and ethical responsibilities, as well as teamwork and communication skills.SATELLITE BUSThe satellite bus is made up of all the necessary subsystems that are essential for normaloperation of the satellite and completing its
, system Activities (340) design Projects Industrial Control & Digital Design of control systems, creative Activities Instrumentation (371) problem solving Projects Applied Strength of Materials Design for strength, fatigue, Activities (407) creative problem solving Projects Manufacturing Planning and Economic decision making, legal Activities Control (463) and ethical issues, project Projects management **Design of Experiments in Experimentation
instrumentation andexperiments. This three-course traditional laboratory sequence allows students to progress fromsimple performance of experiments on standard equipment using prescribed protocols, to thedesign of instrumentation, and finally, to the design of experiments for investigating hypothesesabout physiological systems, integrating knowledge from previous laboratory and lecture classes.The first junior laboratory course runs concurrently with a bioinstrumentation course and the firstsemester of a two-semester course sequence in engineering physiology and provides studentswith laboratory experiences and discussions on biomedical ethics. The outcomes for this courseinclude the ability to use modern engineering tools to make measurements on and
, selecting the best design, constructing, and evaluating performancerelative to initial design specifications. Teams undertake a common project – in terms of clientneeds – although design products to meet these needs may vary.Biomedical Engineering Design I & IIDuring these two quarters, seniors undertake and construct their capstone design project workingon a relevant problem in biomedical engineering. This begins from the development of thedesign problem from a set of (real) client needs, establishing specifications, planning the project, Page 11.1427.3scheduling and efficient use of resources, examining ethics and safety in
Defensive Programming Use Cases Estimation System testing Refactoring User Stories Risk Management Metric tools Code Reviews Requirements Quality Inspections Metrics Requirements Analysis Test Planning Overview Configuration RUP Analysis Release Management Management Professionalism & Ethics Structured Analysis Postmortem Usability
2006-2172: A STUDENT OWNED MICROCONTROLLER BOARDHugh Jack, Grand Valley State University HUGH JACK earned his bachelors degree in electrical engineering, and masters and Ph.D. degrees in mechanical engineering at the University of Western Ontario. He is currently a professor at Grand Valley State University and chairs the product design and manufacturing program. His research interests include controls and automation, including the use open source software for industrial control.Nael Barakat, Grand Valley State University NAEL BARAKAT has a Ph.D. in mechanical engineering from McMaster University. He is currently teaching controls, automation and ethics at Grand Valley State University
time and become what is hoped to be a ‘labor of love’, with students pushing theirprojects beyond the course minimum requirements. Lectures basically follow the samesequence covering topics such as decision making methodology, specification generation,risk analysis, codes and standards, ethics, economics, etc. The difference between the twocourses is in the depth of topic coverage. IMED requiring relatively shallow coveragewith the focus being on the process steps in the design method. The senior course takesknowledge of these steps somewhat for granted and instead the focus is on increasing thedepth and scope of problem definitions, detailed analysis methods, proficiency incommunication and the size and complexity of the projects undertaken
helped others as well. They wereasked to write paper in their own words and refrain from cut-copy-paste. They were urged tomention each and every reference, which is part of professional ethics. They were advised to useample visual information (pictures, figures, tables, and charts) in the PowerPoint presentation. Itwas expected that each student would talk about 10 minutes. Students were advised to prepare atleast 15 slides.Research Paper – Second Progress ReportAs a second progress report students were asked to bring one page abstract, introduction,conclusions in bulleted form, and references. It is observed that students were more inclined to writein detail about manufacturing processes but were applying fewer efforts in
needfor and possess the ability to pursue lifelong learning, and 5) understand professional ethical andsocial responsibilities [7]. For their semester project, students work in self-selected teams using different sets of Page 12.896.3actual project plans to develop a “project action plan.” They are assessed on this at the end of thesemester through the use of a final presentation to a panel of judges from the industry. Thestudents also complete individual assignments each of which provides support documentation forthe final presentation at the end of the semester. This paper describes the assessment methodsimplemented in the course and the
supportive learning environment: ethic of cooperative support between participants, faculty, and administration; strengthened by social gatherings and informal discussions outside the classroom; a trusting environment for students to challenge and consider alternative perspectives, and engage in new learning activities. • Immersion-type experiences for students (and faculty) to work closely and build camaraderie and provide a forum to develop cohort groups, nurtured by an environment of continual interaction (classroom, lunch discussions, intensive team-based projects, external organized activities such as business trips). • Committed students with diverse backgrounds and experiences. Listening to and
Learning Assistance Program at NJIT. She is active, and a former Board Member, in the Hispanic Association for Higher Education (HAHE) and has presented at previous ASEE meetings.Michael Kerley, New Jersey Institute of Technology Dr. Michael Kerley has been a professor at NJIT for the past eleven years. He currently is Coordinator of The Teaching Assistant Instructional Program (primarily for International students), and also teaches Engineering Ethics, Technical Writing, Oral Presentations each semester. Dr. Kerley’s background is in Theatre and Media Education, having his Masters Degree in Theatre Directing from the University of North Carolina at Chapel Hill and his doctorate in
, no. 1, January 2005.[15] Herrmann, N., The Creative Brain, The Ned Herrmann Group: Brain Books, 1995.[16] Lumsdaine, E. and M. Lumsdaine, Creative Problem Solving: Thinking Skills for a Changing World, 2nd ed., 1993.[17] Perry, W. G., Jr., Forms of Intellectual and Ethical Development in the College Years, Holt, Rinehart and Winston, Inc., New York, 1970.[18] Daloz, L.A., Mentor: Guiding the Journey of Adult Learners, Josey-Bass, 1999.[19] Riggs, B., Poli, C., and B. Woolf, “A Multimedia Application for Teaching Design of Manufacturing,” Journal of Engineering Education, vol. 87 no. 1, 63-70, January 1998
social issues surrounding the useof information and accesses and use information ethically and legally.The need for improved teaching of information literacy skills has been well-documented in thelast two decades. Typical of many studies, Seamans’5 survey of First-Year students shows thattheir strategies for locating information are underdeveloped. Undergraduates tend to performresearch not as exploration, but to garner support for a predetermined viewpoint. The studentssurveyed used one keyword when given an information-retrieval task, and used no Booleans,expressing reservations about their use as an unfamiliar concept. The survey also found thatstudents do not see libraries and library personnel as part of information seeking.Lecki and
, science and engineering (c) an ability to design a system, component or process to meet desired needs (e) an understanding of professional and ethical responsibility (h) a recognition of the need for, and an ability to engage in life-long learning (m) an ability to use statistics and linear algebra (n) an ability to work professionally in both thermal and mechanical systems areas including the design and realization of such systems Page 12.462.7 (o) an ability to work effectively as team members in mechanical engineering projectsEven though there are seven outcomes given above, outcomes (c) and (n) are the major outcomesrequired
, environmental, social, political, manufacturability, health and safety, ethical, and sustainability) in realizing systems. C-4. Can build prototypes that meet design specifications.We have a total of 38 such Performance Criteria for the 11 program outcomes. After manymeetings, the faculty finalized a map of Performance Criteria versus courses in the curriculum.This map is the guide for how each course must be designed so that the entire curriculum candemonstrate meeting these criteria, hence the “a” through “k” ABET program outcomes.Once specific performance criteria are assigned to a course, such as the Mech 405, these criteriaare interpreted in the context of that course to generate the course outcomes. The
yearly include Engineering Ethics, Electrocardiogram Capture and Analysis,Engineering Scuba Diving, Moore’s Law and Engineering Economics, and the like. Moststudents (52%) opt to take a module.Co-Author Richter has sponsored and supervised several senior design (and other) projects forthree years prior to this academic year. His projects, due to his career, were all related torehabilitation engineering. His expertise in this area gave rise to the consideration of either afull semester upper level course in rehabilitation engineering or the development of a freshmanmodule in the area. An administrative decision resulted in the request for an introductorymodule in rehabilitation engineering. As the design course was taught by co-author King, it
AC 2007-181: ATTRACTING, RETAINING, AND ENGAGING FACULTY ?TRENDS IN ENGINEERING AND TECHNOLOGYPatricia Fox, Indiana University-Purdue University-Indianapolis Pat Fox is Associate Dean in the Purdue School of Engineering and Technology at IUPUI. She is the school’s chief fiscal officer, and teaches courses in ethical decision-making. Pat is also co-director of the school’s international, interdisciplinary teaching and research initiative, GO GREEN, which emphasizes sustainable development. With H. Oner Yurtseven, she conducts annual ASEE-sponsored salary surveys on engineering and technology faculty compensation. Pat has been active in numerous leadership positions within ASEE.Stephen
introduce students to the engineering careeropportunity, course requirements, survival skills, team work, communications, ethical practices,and sometimes brief exposure to CAD and computer programming. In ASU because of existenceof separate freshman level courses on Engineering Graphics and Engineering Computing whichpreceded the Principles of Engineering Analysis and Design course, those topics were notincluded. However, ASU course was designed to reinforce concepts learned in Algebra andTrigonometry as well as basic topics in differentiation, integrations, linear algebra, complexvariables with application oriented problem solving. Also included are the fundamentals ofStatics, Electric Circuits, thermodynamics and engineering economics. Field
with mechanical objects in engineering education instruction, and how engineering students’ personality traits influence ethical decision making process in engineering design.Dr. Mary K. Pilotte, Purdue University, West Lafayette Pilotte has over 20 years of industrial experience and a PhD in Engineering Education. Research in- terests include uncovering generation-based engineering knowledge transfer, engineering epistemology, engineering entrepreneurship and understanding the differentiated culture of engineering.Dr. Demetra Evangelou, Purdue University, West Lafayette Prof. Evangelou is credited with introducing the concept of developmental engineering, a new area of re- search and education for which she was
their plan to become engage in international accreditation. In 2011 the Center’sboard of directors agreed that IRTE’s operations should be folded into NCATE as of July2012, with each active IRTE member given a plan for leveraging its current status with IRTEinto eventual candidacy for accreditation with NCATE, TEAC or CAEP.4. Issues in foreign evaluationsWhile the authors of this paper are strong supporters of the international agendas of USaccreditors of professional programs, these activities also raise operational challenges andsuggest ethical dilemmas.Agency capacityAccreditation bodies in the US are non-profit and non-governmental, and as such rely heavilyupon volunteers as evaluators and reviewers. It often takes years for a given
program consists of 33 hours: • Three core courses (9 credit hours) o Measurement and Evaluation in Industry & Technology, o Quality and Productivity in Industry & Technology, and o Analysis and Research in Industry and Technology; • Three courses in technical electives (9 credit hours) highly recommended o Leadership & Ethics o Project Management o Technology in a Global Environment • Four courses (12 credit hours) in the students’ area of interest* • Two options for the final 3 credit hours o A directed project which is a
research from lead governmental agenciessuch as NSF and the Department of Energy. The need for qualified nanotechnology workers forthe next two decades is estimated to be in the millions (Rocco, 2003). Broad impact can beachieved by curricular enhancement and reform at the undergraduate level (Winkelman, 2009).Curricular enhancement, if it aims to be comprehensive, needs to ensure that students areexposed to the technical aspects as well as social, economic and ethical impacts ofnanotechnology that numerous researchers are exploring seriously (Tomasik,2009). This paperreports activities and findings of a team of engineering, science, and education faculty members,who are actively involved in nanomaterials-based research and have been collaborating
Demonstrate knowledge and competence in academic and technical fields of study.These competencies will be measured by the ability to: a) Use computers, printed materials and human resources to access and process information. b) Read and comprehend materials related to the discipline of study. c) Possess the necessary academic knowledge and technical skills for entry into employment and/or further study.#4 Demonstrate positive, effective, and appropriate interpersonal skills.These competencies will be measured by the ability to: a) Demonstrate dependable, accountable, flexible behavior. b) Work effectively and appropriately with others through collaboration and teamwork. c) Choose ethical
and Turnitin software tools so that students learned fundamentals of work ethics and plagiarism. • One objective of the course was to increase the students’ skills in critical thinking, creativity and real world problem solution, the essential components of university QEP direction. The deliverables of the course had these QEP elements in lecture, laboratory and project phases. Course evaluation results will be given in the upcoming section. • The student team learned to run a team-based research project. They developed a disciplinary action policy and individual assignments based on the Myers&Briggs test findings. • The team focused on the development of an environmentally friendly, healthy
; f) understanding of professional and ethical responsibility; g) the ability to communicate effectively; h) the understanding of the impact of engineering solutions in a global and societal context; i) the need for an ability to engage in life-long learning; j) knowledge of contemporary issues; k) the ability to use techniques, skills, and modern engineering tools for engineering practice.Industrial ExposureWeek two began with a train and subway ride to the FrankfurtMesse (fairgrounds), where the triennial ACHEMA exhibitionwas occurring. ACHEMA is arguably the world’s largestexhibition of equipment for the chemical and process industries;including exhibits of analytical and laboratory equipment andcomponents, process