the Design Process” covers the phases of a project lifecycle, project management skills (including teaming), as well as professionalism topics including leadership, conflict resolution, lifelong learning and engineering ethics. Technical communication skills are also a focus of this course. During the final weeks, students begin to organize their capstone projects. 400-level course – “Senior Capstone Design” will be offered in three different forms: Corporate-sponsored projects, Projects with faculty and Special Topics sections.This sequence of design courses was approved by the Electrical Engineering Departmentfaculty in 2010 and by the University Faculty Senate in early 2012. The 200-level course
ECE Department at the University of Miami for the 2004-2005 academic year. Dr. Cotter worked at Nokia Mobile Phones as a senior design engineer between 2002 and 2004 in the DSP/Audio group on speech codec implementation and phone acoustic properties. Dr. Cotter received his Ph.D. and M.S. degrees in Electrical Engineering with an emphasis on Digital Signal Processing from the University of California at San Diego in 2001 and 1998 respectively. He received his undergraduate degree in Electronic Engineering from University College Dublin in 1994.Dr. Anastasia Pease, Union College Dr. Anastasia Pease is a lecturer in English and an award-winning teacher. Her interests include literature and science, ethics and
building construction. Pre- and post-surveys wereconducted at the beginning and end of the quarter, respectively, to assess student learning.Results confirmed an increase in student awareness and understanding of sustainable designconcepts that were incorporated on a weekly basis throughout the course and how they can berelated to civil engineering projects.IntroductionIn the Fundamental Canons of the American Society of Civil Engineers (ASCE) Code of Ethics,it states that engineers “shall strive to comply with the principles of sustainable development inthe performance of their professional duties.”1 Additionally, in the statement Dialogue on theEngineer’s Role in Sustainable Development – Johannesburg and Beyond (NAE 2002)2, anumber of American
communication skills, teamwork andunderstanding ethics and professionalism, and awareness skills which include engineering withina global and societal context, lifelong learning and knowledge of contemporary issues.3 It alsostates that some of these skills can certainly be taught and assessed.3NAE says that the engineer of 2020 is a person with strong communication skills, and that theengineers will have to deal with interdisciplinary and globally diverse teams, public officials anda global customer base.4 In its report titled The Engineer of 2020: Visions of Engineering in theNew Century, NAE says: “…. It is our aspiration that engineers will continue to be leaders in themovement toward use of wise, informed, and economical sustainable development
qualifiedstudents to the University’s undergraduate engineering programs; (3) providngi professionaldevelopment for teachers of math, science and technology to enhance their teachingeffectiveness; (4) refining the University’s engineering curricula to ensure they meet Qatar’sevolving needs and to advance students’ knowledge in fields of common interest to industryin Qatar, the region and the world; (5) bolstering teaching, research and outreach in energy,the environment, sustainable technologies, ethics, project management and other such topics;(6) encouraging undergraduate students to participate in research in energy, petroleum,communications and other fields relevant to the Qatar National Research Strategy; (7)encourage undergraduate students to
by the ability to: a) Demonstrate dependable, accountable, flexible behavior. b) Work effectively and appropriately with others through collaboration and teamwork. c) Choose ethical courses of action. d) Demonstrate effective time management skills.Although these Workforce Skills led to changes throughout the program, this paper willprimarily address changes in assessment in the laboratory segment of major courses. Each majorcourse in this program has a significant laboratory segment where students apply, develop andenhance their technical skills. The new assessment model, in addition to integrating WorkforceSkills, takes a more deliberate and student centered approach to assessment and encourages self
Problem Collaboration Managing upLeadership ability, management & solving within the & down--to presence, implementation initiative & leadership school system ethics ability, ability, team administrators, evaluation confrontation to teachers, to approaches, approaches, students, and budgeting, willingness to to community planning take actionSchool System
, problem-solving techniques from many disciplines, and use of the computer as a problem-solving tool.• the ability to integrate scientific and technological factors with political, social, economic, and ethical considerations. Breadth is provided through study in several different strategic sectors that reflect nationalcritical technologies, and currently include: biotechnology, energy, engineering manufacturing,environment, information and knowledge management, health systems, and telecommunications.Depth is provided through study in an area of concentration selected from among these sectors,and includes a comprehensive capstone thesis project. One objective of the program is to educate students to solve problems in a
,thereby providing students with a better preparation for professional practice. Example topics include engineeringstandards, economic, environmental, sustainability, manufacturability, ethical, health and safety, social, and politicalissues. This paper describes the program, includes comment from the Engineer-in-Residence, undergraduates students,and the dean of engineering at Ohio Northern University.Index Terms Professional practice, Co-operative education, Experiential work, and Innovative program. IntroductionThe Engineer-in-Residence (EiR) Program was initiated on September 19th, 2001. It is a unique collaborative effortbetween the Thomas Jefferson Smull College of Engineering
Page 8.724.1ABET. As noted in the Criteria for Accrediting Engineering Programs [1], Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education “Students must be prepared for engineering practice through the curriculum culminating in a major design experience based on the knowledge and skills required in earlier course work and incorporating engineering standards and realistic constraints that include most of the following considerations: economic; environmental; sustainability; manufacturability; ethical; health and safety; social; and political.” [Emphasis added.]At Manhattan
working effectively with theirstudents and their faculty instructional partner. Additionally, some basics for teaching a class Page 8.1173.2such as developing a syllabus and lessons plans are also discussed as well as ethics in teaching. Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering EducationThe modules typically include a lecture or discussion with activities related to ENES 100 that aredesigned to apply knowledge or practice skills. Activities include case studies, simulations,demonstrations, and role-playing
, graphics editor, and presentation software. Each student also archives his or her engineering work in a personal engineering notebook that is periodically reviewed.4. Study how engineering practice relates to a professional code of ethics. Students examine peer-reviewed case studies, identify ethical dilemmas, and propose professional practice solutions.The following student outcomes are assessed during the semester: • Ability to design and realize an electronic system to meet performance constraints. Page 25.788.2 • Ability to create experiments and draw meaningful conclusions from experimental data. • Ability to function as a
, where he teaches general literature, science fiction, composition (both beginning and advanced), ethics, and public speak- ing. He has a Ph.D. in English from the University of California, Santa Barbara (1994). His dissertation was about the portrayal of science in postmodernist fiction. He has published scholarly articles on science fiction, literature, television, film, and music. His most recent work includes a paper presented at two conferences about the design of university-level science fiction courses, using science fiction to teach the ethics of technology. He also gave a talk on Doctor Who and the critique of capitalism. At the end of 2011, his book on the humanism of Doctor Who will be published
through relevant research. Each of these approaches has its benefits. Focusing on the historical design and evolutionof certain kinds of technology allows students to develop an understanding and appreciation ofthe origins of technology and fundamentally asks how technology works and why it developed in Page 15.1350.2the way it did. Technological philosophy courses encourage students to question technology, itsmoral and ethical purposes, and how technology fits within society. Both approaches haveproven valuable in the field of technological literacy.Course OverviewThis course is innovative in both the content and the curriculum design
the University of Pittsburgh. His research focuses on improving the engineering educational experience with an emphasis on assessment of design and problem solving, and the study of the ethical behavior of engineers and engineering managers. A former senior editor of the Journal of Engineering Education, Dr. Shuman is the founding editor of Advances in Engineering Education. He has published widely in the engineering education literature, and is co-author of Engineering Ethics: Balancing Cost, Schedule and Risk - Lessons Learned from the Space Shuttle (Cambridge University Press). He received his Ph.D. from The Johns Hopkins University in Operations Research and the BSEE from the University of
2000) that embrace the ESE concept:(http://bechtel.colorado.edu/Abet/ce_objectives.html). For instance, BS graduates in the Civil Page 10.741.2Engineering Program will be able to: Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education 3. Understand how non-technical concerns such as cost, public safety and health influence Civil Engineering projects. 4. Uphold ethical relationships with both clients and the public at large. 5. Understand broad social and cultural issues so they can participate fully
written.The focus of the following comments have an emphasis on the practical nature of engineeringeducation and a need to support the workplace. A number of respondents indicated specific topicsand methods. In general the comments suggest that education must be tied to the needs of manu-facturers. [Industry Comment] Patents and how to protect IP should be taught to US manu- facturing students Page 15.946.6 Addition of ethics and soft skills, such as emotional intelligence, work ethic, etc.[Industry Comment] Entrepreneurship must be coveredPolitically and Socially:safety: both worker and product - remain
: (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 data (c) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability (d) an ability to function on multi-disciplinary teams (e) an ability to identify, formulate, and solve engineering problems (f) an understanding of professional and ethical responsibility (g) an ability to communicate effectively (h) the broad education necessary to understand the impact of engineering
legal issues relating to the construction management field. Themission of the program is to produce quality construction management graduateswith technical and management skills that meet or exceed the expectations ofindustry, government, and graduate programs. The goals of the program are toprepare graduates for a lifelong professional career in the construction industry,meet the educational requirements for professional certification, and to providegraduates with solid academic preparation for graduate study.MissionThe mission of the Construction Management Program is to educate the studentsfor professional construction leadership positions with a sense of ethical andenvironmental responsibility and also for advanced degree programs. The
ProgramProgram Educational Objectives1) To produce graduates who demonstrate professional competence in engineering practice inlocal and global industry environments, or in related careers in government or academia.2) To produce graduates who exhibit effective communication, team work, and readiness forleadership while acting ethically and professionally.3) To produce graduates who maintain awareness of societal and contemporary issues and fulfillcommunity and society’s needs.4) To produce graduates who actively engage in life-long learning, by completing professionaldevelopment/training courses and workshops, acquiring engineering certification, or pursuingand completing an advanced degree.Program OutcomesThe graduate will have:(a) an ability to apply
have on society. In support of this goal, theuniversity faculty is needed to provide experience with hands-on learning, problem solving,critical thinking, ethics, curriculum design and use of modern technology tools within a broadspectrum of technology areas. This breadth will allow the graduates of this program to clearlyexplain to their future students the relationships among the many technology careers and therelated disciplines that have to be mastered. The Standards for Technological Literacy: Content for the Study of Technology(http://www.iteawww.org/TAA/PDF/Execsum.pdf ) developed through funding from both theNational Science Foundation under Grant No. ESI-9626809 and the National Aeronautics andSpace Administration under Grant No
them to problems with substantial societal technologicalcomponents. Courses in this domain have included over time: • Law and the Engineer • Risk Perception and Communication • Science, Technology and Ethics • Policies of Wireless Systems and the Internet • Information Warfare • Global Competitiveness: Firms, Nations, and Technological Change • Privacy, Policy, Law and Technology • Environmental Science, Technology, and Policy • Energy and the Environment • Climate Science and Policy • Water Technology Innovation and PolicySecond, courses that teach methods or background vital to classes of important problems at thetechnology - society interface are included. These include courses such as
how the freshmen year students would relate the differentmajors to the manufacturing sectors related to the oil and gas industry. Ability to design system, and process to meet the desired needs with realistic constraints such economic, environmental, social, health and safety, and sustainability Ability to work in multidisciplinary teams Knowledge of the current issues Understanding professional and ethical responsibilityThe Engineering Success Seminar (first year experience) is a semester long, four creditcourses that is offered at The Petroleum Institute where the students would learn methodsto be more productive with the industry engagement and hand-on project activity.BackgroundThe mission of the
essences of engineering (design, building systems, and ethics.) Many programs strive to achieve all of that. It is interesting that most colleagues claim that during an ABET visit we all reflect, reshape, and reconsider our efforts, and try to understand a better overall picture. In a sense, we reflect. One argument is that the ABET criteria and suggestions are enforcing the essential 3,7engineering basics together with a liberated form of engineering studies . What would philosophical awareness bring to engineering education?Engineering education
Accounting/Finance/Economics Hand Tool Use & Machine Database Systems (MIS, etc.) Business/Engineering Ethics Operating Enterprise Wide System Social Responsibility Integration Standards, Laws, RegulationsThe Foundation The Basics Mathematics and Science Personal EffectivenessPhysics, Chemistry, BioScience Interpersonal Skills, Negotiating, Conflict Management,Algebra, Trigonometry, Analytic Geometry, Innovation, Creativity, Written and Oral Communication
. Page 24.791.3 Figure 1: The three components of sustainability. Source: http://www.vanderbilt.edu/sustainvu/who-we-are/what-is-sustainability/.Within engineering, the civil engineering field can probably claim the earliest acknowledgmentof the issues of sustainability (environmental engineering and green building, as two examples),but considerations of sustainability are now strongly present in all engineering. ABET’s requiredprogram outcomes (items (a) through (k)) include two that deal directly with sustainability: (c) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and
engineers whooverlooked important issues (e.g., safety or ethical) or failed to mention concerns to a properauthority. By overlooking the issues and failing to highlight concerns to the proper authority, thestudents believed an engineer was directly or indirectly responsible for a resulting catastrophe.Elements of cases are found below: One student’s case (Case #1) involved the construction and collapse of the San Francisco-Oakland Bay Bridge. The case centered on the head engineer who overlooked the seismic activity in a nearby area when designing and constructing the bridge. A Page 24.863.3 number of
discounted cash flows to 18. I have improved my ability to function onvalue project and investment alternatives. multidisciplinary teams.7. Evaluate engineering project and investment alternatives using rate of 19. I have improved my understanding ofreturn methods such as IRR, B/C analysis, and payback period. professional and ethical responsibility.8. I am able to analyze various methods of depreciation and influence of 20. I have improved my understanding of thedepreciation on investment tax alternatives. impact of engineering solutions in a global and9. I am able to
, technical, analytical, and managerial skills necessary to develop, implement, and improve integrated systems in manufacturing and service industry that include people, materials, equipment, information, and energy. They will learn to employ their knowledge and skills responsibly toward the local and global community in concordance with professional and ethical standards. Graduates will be prepared for both immediate employment and continuation into the BS program.The program objectives are consistent with the mission of the university to offer high qualityundergraduate programs that meet regional needs and the department mission to offer qualitymechanical and industrial engineering technology programs that meet regional needs
Engineering students demonstrate development of habitsassociated with life long learning.Outcome 9 (Professionalism / Ethics) - Civil Engineering students show common characteristicsof professionalism and knowledge of ethical behavior.Outcome 10 (Engineering Tools) - Civil Engineering students can effectively use state of thepractice civil engineering technical tools.With the outcomes developed, the task of developing an assessment process began with theworkshops presented by Dr. Miller and Dr. Olds. During the workshops, they presented generalmethods for the collection and assessment of outcomes using both direct and indirect methods 1,2.In addition, the document developed by the Rose Hulman Institute of Technology was also usedduring the process3