a future leader in business or engineering or technologyor a balance of all for our company? What skills, competencies and attitudes would we look for? Whatmix of soft skills (people, leadership, and team), technology and business process skills would we expect?What about ethics, integrity, communications, diversity and a better understanding and acceptance ofglobal diversity and cultures and being able to tap virtual global brains located anywhere and anytime?What about acceptance of and the proactive sponsorship of innovation, entrepreneurship, intrapreneurshipand managing change? In assessing the market needs for the purpose of re-inventing the contents of thedegree program, we always kept these questions in sight.In general, we also
of instructional content to engineering andor technology would be systematically introduced where appropriate. Two examples of how this could beincorporated into the course content for math and social studies are shown in Figures 2.0 and 3.0. 4 Math Science Engineering Discipline Technology General specific Ethics Language Social studies History Relationship To Applications
the undergraduate curriculum) in terms ofcredit hours in these programs ranged from 74.0% to 89.8%1. Core courses make up89.8% of the credit hour requirements at the University of British Columbia (UBC),which until 2010 was the only institution in British Columbia (B.C.) to offer anaccredited program in Civil Engineering. There is therefore limited opportunity to takespecialized and advanced optional technical structural engineering courses in the typicalCanadian undergraduate civil engineering program and in B.C. specifically.The practice of Professional Engineering in Canada is self-regulated by Provincial andTerritorial associations. Each of the associations’ Code of Ethics are modeled on those ofEngineers Canada, which contains an
project. All projects, which satisfy ABET’s design-related criteria foraccrediting engineering programs1, are sponsored by either government or industry. Theycommence at the beginning of fall quarter (commonly last week of September) and end at theend of spring quarter (commonly second week in June.) Students work in teams of three to five,are supervised by a faculty advisor, and are encouraged to work closely with the liaison engineerfrom the sponsoring company.Typically, the senior design course requirements include working on the assigned project,reporting on progress in oral and written format, writing final project report, learning andassessment of basic design process, learning engineering ethics, building knowledge ofcontemporary issues
is that, while it is required for engineering majors, it is also opento non-engineers. The course fulfills two of Sweet Briar’s general education requirements: (i)Appreciate and apply ethical reasoning and (ii) Understand how economic, political, and legalsystems shape the modern world. As a result, a percentage of the course is made up ofhumanities and business majors. While it is fairly common for engineering departments to offercourses for majors in non-technical fields, the goal of these courses is usually to increase the“technical literacy” of these non-majors.4 This is a secondary benefit of our course, however ourprimary goal in bringing non-majors into a required engineering course is to expand thediscussion of the relationship
visionary—that his ideas are as important today as when he wrote them; others say his views are outdated and no longer apply to 21st-century conditions. Where do you stand and on which ideas in particular? ≠ Most economists and politicians believe that our consumption-based society has created unprecedented wealth in the West and, therefore, justifies a degree of inequality. How does Schumacher view consumption-based economies? What kind of alternative system or reforms does he propose? ≠ Some of the book's insights are aimed at the scientific community, with Schumacher asserting that scientists are incapable of ethical decision-making regarding the direction of their research. Consider his arguments in
a group of their peers that the application is commercially and ethically viable. Surveyresults were taken from three different classes using a 9-value Likert scale. The current researchwill explain the pedagogical basis for using competition in such presentations and a discussion oftrade-offs, observations of how to implement such presentations at different student levels, andtheir impact on student motivation.1. IntroductionIt is the role of every engineering degree-granting institution to make sure their students have asolid background in the core topics of their specific field as well as engineering in general. Asengineers, they must then be able to integrate this knowledge in order to utilize a more holisticview4 when designing
3 Creative Problem Solving d 1,2System Thinking d,e 4 Ethics and Professionalism a,i 8Self-Learning h 5 Technology Skills a,f 1,2Respect for diversity j 8 Continuous improvement k 4Note: ABET Criterion 2 Program Outcomes – Students will have:a. an appropriate mastery of the knowledge, techniques, skills and modern tools of their disciplines;b. an ability to apply current
graduate students, attend a GRE preparation class, tour variouslabs/company/research centers (Fig. 2), and participate in weekly seminars with different topicslike research methodology, ethics, going to graduate school, etc. The participants learned to plantheir research activities, weigh alternatives, execute the tasks, document their work, and thenpresent the results as posters at the end of the program. In addition to gaining the technical hard-skills, the participants also practiced other soft-skills during the training: ethical commitment,effective teamwork, project management, and presentation skill.Post program surveys indicate that 88% of participants would recommend the program to theirfriends, and 94% think the program provided a good
importance of some competencies. In particular, engineersmust supplement technical mastery with communication and business skills, ability to workeffectively as an individual and as a member or leader of a team, understanding of ethical,health, and safety issues, as well as social impact of engineering solutions and theirprofessional activity. The importance of life-long learning in engineering profession is alsoincreasing because of a rapidly changing technologies and industry demands. To translatecurrent and perspective needs of industry and to eliminate a mismatch between academicrequirements and competencies needed in the workplace national engineering educationsocieties are created. They provide an opportunity for stakeholders to be engaged
forgenerations to come”. The sustainable development strategy should be taken intoaccount by each state, each institution, and each person in the country. Technicaluniversities in Russia play a key role in engagement and dissemination of suchsustainability principles, as resource efficiency, ecology protection, nonproliferationand disarmament, engineering ethics, etc. Educational process is arranged in a waythat technical disciplines include aspects of social awareness, lean productiontechnics, smart cities ideas and many others. Therefore while studying technicaldisciplines and working on professional projects future engineers develop, forinstance, such competencies as ability to apply a systems thinking approach forcomplex problem solving with
. In addition to enhancingacademic acquisition of scientific knowledge and problem solving ability, non-technicalskills, such as communication effectively in various contexts, understanding ofprofessional & ethical responsibility, understanding of solution impacts andsustain/exploit benefits, project management, relationship management, quick responseto changes, etc. have been practiced in doing real world projects sponsored by globalcompanies. Through the practice of a mixed team with members from USA and China,the students have the opportunity to grow becoming better global citizens. They learn tounderstand the society and social responsibility of a qualified engineer in new century.They learn from each other from living and working
broaden current and future engineers’ skills sets to become Page 21.3.5not only technically competent but also competent in communication and management 4practices which are somewhat taught in undergraduate, but never had the opportunities torefine at the postgraduate levels. Goh1 and Galloway10 propose new Master degrees inProfessional Engineering. Both authors lay out non-technical areas in which engineers mustbecome proficient: globalization, innovation, communication, ethics and professionalism,diversity, and leadership (21st Century Skills Set).To
World Federation of Engineering Organizations that will focus on theneed for:• Strengthening engineering education, training and continued professional development;• Standards, quality assurance and accreditation;• Development of curricula, learning and teaching materials and methods;• Distance and interactive learning (including virtual universities and libraries);• Development of engineering ethics and codes of practice;• Promotion and public understanding of engineering and technology;• Development of indicators, information and communication systems for engineering;• Addressing women and gender issues in engineering and technology;• Inter-university and institutional cooperation, including fellowships;• Development of engineering and
Conference & Exposition Copyright © 2004, American Society for Engineering Educationexpertise. Multidisciplinary approaches can provide the synergy and spark the creativityrequired to develop workable solutions to the increasingly complex problems of today’s society.Students and faculty must learn to understand and respect their colleagues who study otherdisciplines, and value the contribution those studies may have on their own work.The Accreditation Board of Engineering and Technology (ABET) affirmed the value of severalRenaissance traits by including in their EC 2000 criterion 3 the following:1 (d) an ability to function on multi-disciplinary teams (f) an understanding of professional and ethical
Engineering 19, 20. Theproposal for the new program included a new course, ECE 491 Senior Project I, whichwas introduced to satisfy two distinct goals: provide a capstone design experience;introduce new material in the area of computer network hardware. The course is notintended to replace a typical course in computer networks, which covers material relatedto network architectures, protocols and performance.The CourseOrganized in a 14-week semester with two 50-minute lectures and one 3-hour laboratoryperiod per week, ECE 491 has several goals: to learn about computer network protocolsand hardware; to work on a design project that must interface properly with other groups;to evaluate the project from ethical and socially responsible points of view; to
assessment requires that graduates must havedemonstrated abilities (ABET Criteria 3, a-k [1]), in mathematics, science, engineering,design, data analysis, teamwork, ethics, communications, and life-long learning. Inaddition to ABET 3(a-k) requirements, the Mechanical Engineering program at AAMUwas designed to meet the additional requirements of the American Society of MechanicalEngineers, such as (l) an ability to apply advanced mathematics through multivariatecalculus and differential equations, (m) a familiarity with statistics, linear algebra andreliability, (n) an ability to work professionally in both thermal and mechanical systemsareas including the design and analysis of such systems, (o) a knowledge ofcontemporary analytical, computational
Topics • Identification of • Acquisition Theory and Link to SE Topics •Ethics Interests • Needs Determination •Contracts • Players • Functional Analysis and •Legal Issues • Generating • Contractor the use of M&S •Managing Risk Alternatives • Business •Knowledge IT
solution to the problem. Make sure you demonstrate theviability of your solution. It is important to present evidence in support of your proposal. Finally, show that you are capable of implementing the proposed solution. Doesyour company have the skills and resources necessary to complete the task at hand?One of the best ways to show this is to present evidence of your successful completionof other, similar projects. Traditionally, persuasive language seeks to activate three responses in a reader: 1. Ethos (ethical response): While having good ethics is one way to create a feeling of ethos in the reader, doing the right thing is only part of it. Ethos is aroused in clients when they feel respect for the writer and trust that the
will subscribe to the following mission statement: The mission of the undergraduate program in architectural engineering is to prepare students to undertake the necessary design experience in the building industry to become registered engineers with a specialization in Building Architectural Engineering, and to instill in them the importance of lifelong learning, including pursuing advanced studies leading to graduate degrees.Program Educational Objectives The program will emphasize the following educational objectives: • To provide graduates with the necessary engineering skills to engage in lifelong careers as practicing professional architectural engineers who are ethical and socially
// // Υ Υ Υ Society, Ethics & Tech. 3 1 Υ Υ Mech. Design Anal. I // // Υ Υ Υ Thermodynamics. II 3 2 Υ Υ Fluid Mechanics // // Υ Υ Kinematics & Mech. // // Υ Υ Υ Υ Mech. Lab. II // // Υ Υ Heat Transfer 4 1 Υ
Page 10.437.1 Proceedings of the 2005 American Society of Engineering Education Annual Conference & Exposition Copyright C 2005, American Society of Engineering EducationES 107, Introduction to Engineering, is a three semester-hour course. It provides an introductionto engineering through a realistic and hands-on problem-solving experience. It focuses onengineering design process--the application of math, science, and technology to create devicesand systems that meet human needs. It provides an introduction to group work, to oral andwritten communications and to engineering ethics. The course is required for all freshman-engineering students, and a large number of non-engineering majors at the University of
Circuits (EE98) American Studies IA American Studies IB Introduction to Materials (MatE 25) Statics (CE99) Oral Communication rd 3 Year Physical Chem. (Chem161A) Matls Characterization (MatE141) Systems/Structures Matls (MatE115) Safety & Ethics in Engr. (ChE 161) Electronic Props Matls (MatE 153) Design of Experiments (ISE 135) Engineering Statistics (ISE 130) Semicond. Device Physics (EE128) Technical Writing (E100) Basic IC Fab/Desgn (MatE/EE 129) Mass & Heat Transport
issues or ethics. The resulting assessment measures students’achievement of all program outcomes.Outcomes Assessment and the IE Program at WPIAs accrediting agencies have pushed toward outcomes assessment, many academic programshave revisited their mission statements and developed assessment mechanisms to demonstratethe accomplishments of their graduates. In particular, ABET has required that engineeringprograms specify program outcomes, statements that describe what students are expected toknow and be able to do by the time of graduation1. As part of the accreditation process,programs must evaluate and provide evidence that graduates satisfy these program outcomes.The results of this assessment are then used to make program improvements
Multimedia 1835 Creating a Facility for Developing Professional Skills McCowan, J.D. and Mason, J.L. Faculty of Applied Science, Queen’s University Kingston, Ontario, Canada There is almost universal agreement that an effective engineer must possess a broad range ofprofessional skills, extending far beyond the technical expertise of his or her discipline. Anengineer also requires a sensitivity to societal needs, to the environment, and to other individuals,if he or she is to practise in an ethical and responsible way. An effective engineer must
course evaluations, ethical and contemporary technical issues documentation, and anumber of constituent surveys.Ideally, the infrastructure needed to enable program improvement would support the extractionof pertinent data from a common database, conveniently placed there on time by willingconstituents. What may have been a relatively infrequent compilation of materials under the oldcriteria has been transformed into a process requiring continuous support. The acquisition andmanagement of this data can be a concern for otherwise busy faculty members who may assumea responsible role for shepherding the assessment process. Though assessment events occurregularly, in some cases once or twice a year, they are not always so frequent as to make
skills, written communication skills,professional ethics, and human relations. Individual work that is evaluated consists of oralpresentations, individual contributions to the team project, and class participation. Eachpresenter is responsible for the quality of visual aids used during their part of the presentation.Individual contributions to the team project are documented in individual design notebooks inaccordance with Engineering 4390-Engineering Design Notebook Specification. The first entryin the design notebook is a narrative statement of individual work outlining that person'scontributions to the project. These contributions are supported by frequent reference to other
responded quickly to isolate the problem, find its source, and revise its practicesto make the system even more sensitive and responsive to chemical security issues along theproduction chain. The case illustrates that the decision makers exhibited some of thecharacteristics that others have put forth associated with increasing the chances for keepingsystems operational, and it illustrates some characteristics that point to ways for increasing thesecurity of its intended use.Bibliography1. Information about this case was supplied through telephone email correspondence with Albin Kaelin, Managingdirector, Rohner Textil AG, from July – September 1999.2. Gorman, M. E., M. M. Mehalik, and Patricia Werhane. (2000). Ethical and environmental challenges
chemistry, 1 thermodynamics, 1dynamics, 1 material science, 1 computers, 1 ethics and 1 engineering economics.The participants were recruited to participate in the study through email announcements. Weonly selected participants who indicated that they had a relatively high grade point average(GPA) in engineering, and who stated that they were good in engineering and that it wasimportant for them to be good in engineering. We selected participants using these criteriabecause previous stereotype threat studies1,14 have indicated that stereotype threat effects arelargest among the best students who are most identified with the subject matter.Five to 10 participants reported to each testing session in mixed gender groups. They read thetest instructions
ELE-128 - Internet of Things Networking & Security ELE-128L - Lab: IoT Networking & Security CSO-105 - Cisco – Introduction to Networking CSO-105L – Intro to Networking LabA student enrolled in this certificate must complete the required courses shown above and alsotake one course from the following list: BMT-230 – Bio-Medical Wireless Networking BMT-230L – Bio-Medical Networking Lab EET-135 – Programmable Logic Controller 1 (PLCs 1) EET-135L – Lab: Programmable Logic Controller 1 (PLCs 1)Also, a student enrolled in this certificate must also take one course from the following list: CSE-248 – Ethical Hacking CSE-248L – Ethical Hacking Lab CSE-172 – Cloud Computing for the Internet of