a “B” grade.III. SAP Curriculum PlanSUBR strategy is to implement SAP R/3 into the curriculum for the College of Business andCollege of Engineering. The college of engineering plan is to introduce business issues inengineering curriculum in selected relevant courses as follows:MEEN 120 : Introduction to Engineering and Technology - Introduction to Universityorganization and procedures; engineering and ethics; engineering graphics including introductionto computer-aided design; and the engineering design process and its applications to practicalproblems. Introduction to SAP/R3 applications will be provided to high school students(Engineering Summer Institute) and freshman engineering students through demonstrationapplications. Prerequisite
to evaluate alternative designs and select the particular design bestmeeting the stated objectives. Students must learn how to build, test and optimize Page 9.967.1prototypes. They must know how to present their design effectively to "management" Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering Educationboth orally and in written reports. Finally, students must be familiar with engineeringstandards and be able to assess the particular manufacturability, ethical, health and safety
information literacy competency requirements The recently revised Canadian Engineering Accreditation Board’s accreditation criteria6have higher expectations of information research skills for undergraduate engineering graduatesthan ever before. Among the 12 graduate attributes, problem analysis, investigation,communication skills, ethics and equity, and life-long learning are closely associated withinformation literacy (IL) competencies and can be addressed by academic librarians themselvesor in collaboration with different units on campus. IL training may help this group of studentsbecome better empowered to use information effectively, which has the potential to contribute totheir overall academic and career success.Role of undergraduate
. Page 25.7.12Table 3- Course Objectives and Associated ABET A-K Criteria Course ObjectivesObj. # ABET Engineering Criteria 2000 (Provide experiences in…) F- Understand professional and ethical 1 Leadership and professionalism responsibility E- Identify, formulate, and solve engineering problems; C- Design a system, component or process to 2
; emphasis on social relevance, service learning, volunteerleadership, and collaboration. These skills can be taught without significant investment.Introduction and emphasis on more soft skills in engineering classes can help students develop Page 23.256.3these skills.In the engineering senior design courses for example, ethics and law (patent and trademark) canbe incorporated in the teachings. These could be in the form of assigned reading, case studies,videos, external lecturers, and webinars from professional organizations like ASME, IEEE, andAIAA. Moreover writing should also be much emphasized, assigned and graded. Further oraland technical
delivery method affected thestudents’ opinion of the instructor. Means and standard deviations for both lecture deliverymethods are presented in Table 1. T-tests were performed to determine if the differences in themeans was statistically significant.The quizzes assessed student learning of class materials. Quiz one covered the policies, risks,and motivations behind environmental compliance audits. Quiz one displayed a 2.99 percentagepoint difference between the mean grades of the two sections. The higher grades were achievedby students with the Power Point/audio lectures. The difference was statistically significant,dictating that for the first quiz, lecture delivery method mattered. Quiz two assessed students’knowledge of procedures and ethics
10.1357.2found in a standard book on icebreakers. I brought in the Chief Engineer of the MDOT to Proceedings of the 2005 American Society for Engineering Education annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationdiscuss engineering ethics with the class. The second part covered basics on scheduling and costestimating. I emphasized that as project managers, engineers need to have a sense of scheduleand cost. Brief class exercises demonstrated how to use standard cost guides such as RS Meansand to develop small schedules using PERT diagrams. The third part consisted of developingproposals that would be used in the spring senior capstone project. The second course that I developed was
anengineering technology classroom. Students appreciate the ability of theses faculty members todevelop current practices and bring them into the classroom, allowing students to gain the latest Page 10.275.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright ©2005, American Society for Engineering Educationknowledge in engineering techniques. These techniques extend from the current technicalexpertise to engineering ethics and finally to communications in the workplace.Not having formal teaching education, these new faculty can be at a disadvantage in theclassroom
ofretention. The first strategy involves requiring students to pass an end-of-year exam thatincludes all completed subjects. Students failing the exam are required to enroll in a one creditreview class. If they do not pass this class, they must transfer to a non-engineering major. End-of-year exams cover: mathematics, chemistry, ethics, computer programming, engineeringeconomics, and eight engineering science subject areas. The second strategy involvesmaintaining student proficiencies in written, graphic and oral communication skills which are notincluded in the end-of-year exam. The department has developed standards to which thestudents must adhere in all classes throughout their tenure. Work not meeting thecommunication standards is returned for
by 20 instructors. Each section met for two 50-minute sessions weekly.Engineering Exploration, EngE 1024, provides an introduction to the engineering profession.The course focuses on an introduction to and application of the design process and teamwork,applying the scientific method to problem solving, graphing numeric data and deriving simpleempirical functions, developing and implementing algorithms, and professional ethics. In thefall 2004 offering, Object Oriented Programming was introduced through ALICE, a graphicsbased object oriented programming language, available free from Carnegie Mellon University(www.alice.org).28 During the semester, students completed three group (typically 4 students pergroup) design projects. For projects A
presented several times each semester to all six sections. • Each faculty member delivers one or two lectures for the large group session, including topics such as sustainability, hazard analysis, project planning, testing and verification, engineering ethics, patents, entrepreneurship, and professional licensure. • Weekly advisor meetings (WAMs) are held with all six faculty in attendance to address administrative and creative issues.The exemplary materials developed as resources for each instructor include electronic copies ofthe following: • Course syllabus, schedule, and grading format • A handout detailing each assignment on the proposed schedule • Example assignments, as appropriate • Suggested grade sheets
current knowledge and adapt to emerging applications of mathematics, science, engineering and technology, c. an ability to conduct, analyze and interpret experiments and apply experimental results to improve processes, d. an ability to apply creativity in the design of systems, components or processes appropriate to program 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
teams were also involved in mock-up situationsrequiring the application of engineering ethics. As a part of instruction the student teamswere assigned to present specific case histories covering different aspects of designprocess. This consisted of engineering successes as well as failures from the accounts ofcase histories [1]. These realistic situations from the case histories were used to illustrateand reinforce the interdisciplinary nature of engineering design. The student teamswould come prepared and present before the class the case histories and what were thelessons learned from them. The entire class participated in asking questions andcritiquing the presentations. Prior to the student team presentations, the instructor wouldoutline
, and works as a research associate atthe V.A. Patient Safety Research Center in Tampa. His areas of research include scarce resource allocation, barriersto implementing patient safety interventions, and the learning styles of engineering students. He teaches a variety ofcourses at USF including engineering economy, manufacturing processes, and engineering ethics. Page 9.343.5“Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright ©2004, American Society for Engineering Education”
division writinginstruction. However, since this convention is closely tied to ethical professionalism, it should beremediated, in my opinion. While poor grammar and punctuation skills may reflect poorly on astudent’s credibility once he or she reaches the workplace, failing to give proper credit foranother’s ideas could get him or her fired.Recommended Teaching ApproachesIn general, I believe that three pedagogical approaches can bring significant improvements to thewriting products produced by engineering students.First, consider group-written assignments aimed at an audience of professional peers, rather thanwritten for the teacher. The most successful set of documents I reviewed belonged to the civilengineering students, who worked in groups
series, critical features for the process and expected outcomes for each of thecourses. We used a set of critical design assumptions as our guide for development.These assumptions were based on adult learning theory as well as motivational theory.Furthermore, we felt the student should take personal responsibility to be activelyinvolved in their learning agenda, shape a vision for his/her leadership and learning thatwould guide their planning process while they deliberately focused on increasing theirself-awareness and understanding of a leader’s social/ethical responsibilities.The three-course series would begin with a thorough base-line assessment of theindividual graduate student’s competencies, personal values, learning style
offering a wide variety ofoff campus and online courses.The mission of Bluefield State College is to provide students an affordable, universallyaccessible opportunity for public higher education. The college demonstrates its commitment toundergraduate education by providing a dedicated faculty and staff, quality educationalprograms, and strong student support services in a caring environment. All programs aredesigned to promote the student’s intellectual, personal, ethical, and cultural development. As ahistorically black institution, Bluefield State College prepares students for challenging careers,graduate study, informed citizenship, community involvement, and public service in an ever-changing global society. The college serves the citizens of
economics, technical communications, ethics, and other engineering topics. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering EducationDesign-build projects, which require a prototype to be built, better demonstrate the engineeringdesign process, necessitate more student teamwork and planning, and tend to make studentdesigns more realistic. Students find the design-build experience even more satisfying when itculminates in a prototype contest or competition. Such course or even better school-widecompetitions generate student enthusiasm and allow the truly exceptional student teams to shinein front of their peers. Many
project manager. • Becoming a national model for a reconsidered role of higher education in society.OutcomesThe specific outcomes of the project are listed below. • Increase student retention rate by 10% by the third year of the project. • Increased overall grade point average (assumed to be among the project participants compared to control group students). • Increased student abilities to define problems, participate in the overall learning experience, and solve problems. • Increased student college level reading, critical thinking, writing, and mathematics. • Increased student understanding of self, sense of personal ethics, and clarity of personal values. • Increased student
skills,environmental impact, and ethics. The second course is an exploration of engineering andengineering technology disciplines with an emphasis on projects.The purpose of these courses is to engage the students in the application of engineering early intheir course of study with the hope that their interest will be reinforced and the likelihood of theirbeing retained as students will increase. The courses are divided into three five-week modulesthat are distributed among departments within the college. The Engineering Technologydepartment is responsible for two of the five-week modules in the second, projects-based course.One module is comprised of the civil, mechanical and electrical engineering technology curriculaand the other module is
, 2003, from http://www.nsf.gov/sbe/srs/nsf03312/c2/c2s7.htm.13. Dyrud, Marilyn A. (compiler). A1997 Engineering Technology Bibliography.@ Journal of EngineeringTechnology 15, no. 2 (Fall 1998): 18-34.14. Dyrud, Marilyn A. (compiler). A1999 Engineering Technology Bibliography.@ Journal of EngineeringTechnology 17, no. 2 (Fall 2000): 38-51.Marilyn A. Dyrud is a full professor in the Communications Department at Oregon Institute of Technology andteaches classes in technical and business writing, public speaking, and professional ethics, and is part of the facultyteam for the civil engineering integrated senior project. She has been active is ASEE for 20 years. She is also activein the Association for Business Communication and the Association for
enhance content quality and/or quantity more easily.5. Adapting multi-media course content to the on-line environment Limitations of on-line course offering and management software to handle multi-media course content must be overcome (by alternative means if required) to ensure that such multi-media content is provided on-line just as it is done in regular classroom situations.6. Conforming with copyright issues It is of course necessary ethically and legally to comply with copyright and confidentiality protocols. This can be quite a challenge given that students are in various geographic locations with access to information from various sources not only in the public domain but also in the
Laboratory, LA-UR-99- 3231 (1999).6. Meyer, R., “Introduction to Basic Design of Experiments Concepts”, © Meyer Group, Inc., (2001)7. UST, Bush Grant, www.stthomas.edu/bushgrantBiographical InformationCAMILLE GEORGECamille George is an Assistant Professor of Mechanical Engineering at the University of St. Thomas. She teachesThermodynamics, Heat Transfer and Fluid Mechanics. She received a B.A. from the University of Chicago, a B.S.and M.S. from the University of Illinois at Chicago and a Ph.D. from the University of Minnesota. She workedseveral years as an engineer for Ingersoll-Rand and Martin-Marietta before obtaining her doctorate. Her currentinterests are in the areas of fuel cells, ethics and humanitarian engineering
engineering.These issues include: professional and ethical responsibility, the impact of engineering solutionsin a global and societal context, and a knowledge of contemporary issues. While recognizing itsimportance within the engineering curriculum, many departments find it difficult to effectivelyintegrate experiences that include the full spectrum of professional, or “soft” skills, that simulate Page 9.784.1current industrial practices (Hughes, 2001). “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education
” by the time they graduate with Bachelor of Sciencedegrees. We also feel that there are a set of “core competencies” (e.g., communications,teamwork, ethics, etc.) with which BMEs should be familiar, if not able to masterfullydemonstrate. Though of equal importance to the “key content” knowledge described above, ourpresent focus is on determining the key elements of biomedical engineering domain knowledgeand disseminating these elements to our colleagues in academia and industry (other members ofVaNTH are actively developing a consensus set of “core competencies” in collaboration with theCDIO7 initiative at MIT). Page 9.258.1 “Proceedings
of business interactions and linkages. Criticalbusiness data must be accessible to authorized users (comprising suppliers, employees,distributors, retailers, customers, etc.) within the value chain in a timely and controlledmanner. Corporations store confidential and/or proprietary information belonging to otherfirms as well as their own. Compromising proprietary information has severe business,ethical and legal repercussions for an enterprise. The Computer Security Institute incooperation with the San Francisco FBI office conducts an annual survey of computercrime and losses – it reports that in 2003, survey respondents stated that proprietaryinformation theft contributed to the most financial loss and averaged $2.7 million perincident. [2
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) A broad education necessary to understand the impact of engineering solutions in a global and societal context. (i) A recognition of the need for, and an ability to engage in life-long learning. (j) A knowledge of contemporary issues. (k) An ability to use the techniques, skills and modern engineering tools necessary for engineering practice.Each program should also specify whether or not these criteria are equally weighted and why,and all criteria must be met by some
worldreligions (as indicated by their international outreach). It is not surprising, therefore, thati “As a Professional Engineer, I dedicate my professional knowledge and skill to the advancement and betterment of Page 9.1091.1human welfare …” (NSPE Code of Ethics for Engineers) Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright ø 2004, American Society for Engineering Education Session 2625engineering departments at faith-based institutions place a high value
all students to purchase notebook computers. All Engineering Technology students enroll inthe course during their first semester at the University. This one-credit course meets for one 75-minute class period per week, and is graded on a pass/no credit (P/NC) basis. Because of thisgrading scheme, some students realize that attendance and a minimum amount of work are allthat are required to obtain credit for the course. As such, engaging students in each area of studyis the best way to maintain their interest in the subject area.Areas of study in the beginning of the course involve discussion and activities related to ethics,diversity, study skills, time management, University policies & procedures, and the designprocess. Four weeks of the