ethical issue? The possible responses were “agree strongly with viewpoint A,” “lean toward viewpoint A,” “neutral,” “lean toward viewpoint B,” and “agree strongly with viewpoint B.”• How would you describe your interest in this ethical issue? The possible responses were “high,” “significant,” “moderate,” “little,” and “none.”• Do you think your viewpoint would change with thorough study of this ethical issue? The possible responses were “yes,” “probably,” “maybe,” “unlikely,” and “no.”• How relevant is this ethical issue to your career plans? The possible responses were “very much,” “considerably,” “somewhat,” “hardly,” and “not.”• How important is this ethical issue to society? The possible responses were “very much,” “considerably
of knowledge in school andbeyond. Thus, teaching students self-regulatory skills in addition to subject-matter knowledge isone of the major goals of education. However, SRL is not well known and utilized by theEngineering and Technology education community for facilitating student learning.Self-regulated learners are purposive and goal-oriented, incorporating and applying a variety ofstrategies to optimize their academic performances. However, the application of self-regulationto learning is a complicated process involving not only the awareness and application of learningstrategies but also extensive reflection and self awareness. This paper describes the developmentof the instructional strategy and its implementation plan, which integrates
SEEM TO MATTERABSTRACTIn this paper we explore engineering student gains in confidence in professional andinterpersonal skills and intrinsic psychological motivation to study engineering. These twofactors were selected because they have been shown in other work from the Academic PathwaysStudy (APS) sponsored by the Center for the Advancement of Engineering Education (CAEE) tobe directly related to post-graduation plans and to several dimensions of the undergraduateexperience. We focus on students with positive confidence and/or motivation gains during theirfirst two years of college, and show that these students are distinct from those with negative orno gains in terms of persistence in the engineering profession, confidence in math and
. Page 15.519.1© American Society for Engineering Education, 2010Enhancing the Undergraduate Research Experience in a Senior Design ContextAbstractThe paper presents an instructional framework developed by the authors that engagessenior students in a 5-credit Research and Development course incorporating projectdevelopment, implementation, entrepreneurship, innovation, creativity, teamwork, andcommunication. The paper discusses the development and accomplishments of the courseover the past four years in the context of the Quality Enhancement Plan (QEP) - aninitiative at the University of Houston intended to encourage the development andenhancement of undergraduate research skills. The philosophy behind the course is
used asassessment goals for the programs. Natural Sciences and Social Sciences do not have criteriaguiding them in the development of their assessment plans.This paper looks at the costs of assessment activities and the alternatives available forengineering technology programs taking into consideration the cost factor that is critical for thesuccess of development and implementation of a continuous outcomes assessment plan. Theresults of this study should yield useful information and suggestions for engineering technologydepartments seeking accreditation or reaccreditation under current TAC/ABET guidelines.Engineering technology departments taking the position that academic assessment follows thesame process as quality control and enhancement
by the school systems and trained in teaching EiE. The teachers weresupported by staff and professors of engineering, technology, mathematics, and science from twocommunity colleges.This paper describes the year-long process to introduce a unit of EiE into the classrooms of eachof the twenty-two elementary school teachers, in such a way that each selected unit meshed withthe unique curriculum of each elementary school.The paper also describes the work done implementing surveys of student attitudes andimplementing pre- and post-tests of student learning about engineers, the engineering designprocess and a unit of EiE.Each school district also developed and began to implement appropriate plans for theprofessional development of additional
instrument: 1, 2 & 3 carry a combined weight of 50%. The first two are concerned withconcept identification and concept mathematical expressions with a 20% weight, while applyingthe concepts carries a 30% weight. The solution method or plan is also assigned a 30% weight,while the final results are assigned a 20% weight. It is noted that applying the concepts(competency 3) and presenting a solution plan or approach (competency 4) are given a combinedweight of 60%, in order to emphasize the conceptual and procedural competencies as significantcomponents of the cognitive learning process. The assessment rubric is displayed in Table 6. Conceptual and Score Weight
discussed including thetechnical, management, mentoring and window of student creativity.IntroductionCapstone project is a unique educational tool where at that level, senior students have developedboth the technical and the management skills and they are ready to be challenged with an open-ended problem. However, guidance is still an important part of this educational environment. Itcompletes the process by opening the right doors for the students to apply the correct planning,designing, building and testing procedure for a successful project. Dusing et al1 discussed the useof design review meetings to guide the students before major steps of the project. In this meeting,the students defend their technical decision and are challenged by a couple
, and education. collaborations.Olin used Invention 2000 to develop the entire institution from a blank slate.8, 9 “INVENTION 2000 is a blueprint for developing all academic and operational aspects of the Franklin W. Olin College of Engineering from a clean slate. The plan outlines an intense two-year project intended to produce innovative educational processes for preparing the next generation of leaders in a technological society and institutional policies which will establish a commitment to continuous improvement and innovation. Intense efforts will be focused on (1) a comprehensive re-examination of engineering curricula and educational processes, (2) student life and
reported on our initial plans to overhaul theWest Point Civil Engineering curriculum based on initial constituent survey results and facultyfocus group efforts. Following an ABET visit in the fall of 2008, we were able to again focuson refining our initial plan. Further efforts involved more detailed planning to ensure allidentified subjects were included, all ABET requirements were satisfied, and that the resultingplan made sense from a pedagogical perspective. The end result of this process is a revised CEprogram that better meets the needs of our constituents. Along with providing a strongfoundational basis for the study of civil engineering and for continued lifelong learning, theprogram now addresses aspects of infrastructure that our
development of a vision for SPEED and its conceptualdesign. This overview includes comments on current professional development opportunities forfaculty across the world, and the challenges, opportunities and critical elements that would beassociated with a successful professional educational development program. We then offer a setof core competencies areas which would likely be required of faculty who finish suchprofessional development. Finally, we conclude with some specifics about the proposed SPEEDprogram. We offer some details on its current design and describe plans to engage relevantconstituencies and create buy-in from the community.Origins of SPEED and previous workEngineering and engineering technology (EET) departments have a long
management, and initiative. Engineersgo through 16 weeks of training during which they share their current research through two setsof four-session Family Science Courses. Their training addresses: how people learn, audiencetypes and motivations, strategies for working with various age groups and designing engagingmulti-media experiences61. The training also gives engineers a model for effective directinstruction, opportunities for them to practice their new skills and ways for them to self-evaluatetheir teaching.Engineers are given a lesson plan template that helps them break down complex ideas intosimple lessons, identify learning objectives, design learner-directed experiments and assesslearning. Engineers limit direct instruction to 15
, specifically thedesign and management of technically oriented projects. The four phases of a project wereoutlined as follows.1 It is worthy to note that these phases have also been adopted in theIntroduction to Engineering Design classes and provide consistency in terminology for the firstyear engineering students. 1. Phase I - Conception Phase 2. Phase II - Study Phase 3. Phase III - Design Phase 4. Phase IV - Implementation PhaseNow was when the discussion of timelines was put to use. Students were shown examples ofproject timelines, and asked to make Gantt Charts. This is a very useful planning tool used inindustry. Those students familiar with MS Project were encouraged to use the software.Courses in MS Project are offered on campus
, specifically thedesign and management of technically oriented projects. The four phases of a project wereoutlined as follows.1 It is worthy to note that these phases have also been adopted in theIntroduction to Engineering Design classes and provide consistency in terminology for the firstyear engineering students. 1. Phase I - Conception Phase 2. Phase II - Study Phase 3. Phase III - Design Phase 4. Phase IV - Implementation PhaseNow was when the discussion of timelines was put to use. Students were shown examples ofproject timelines, and asked to make Gantt Charts. This is a very useful planning tool used inindustry. Those students familiar with MS Project were encouraged to use the software.Courses in MS Project are offered on campus
skills learned duringthe professional development and remained motivated and excited about their participation in theprogram, monthly classroom visits and mentoring via the program listserve as well as email and phonecalls have proven invaluable. Recommended strategies for classroom visits are a combination of co-teaching, modeling, and observation/feedback.Sample Student Products Attached ≠ Just Passing Through: Exploring Membranes ≠ Just Passing Through: Designing Model Membranes PLAN ≠ Just Passing Through: Designing Model Membranes CREATE ≠ Student Photos o Lesson One: Designing Model Membranes o Lesson Two: Inventors of Tomorrow
materials, tools, and machines needed coherent written, oral, or visual to construct a prototype of a given engineering design. presentation. (2.1)2.5 Explain how such design features as size, shape, weight, ≠ Develop plans, including function, and cost limitations would affect the drawings with measurements and construction of a given prototype. details of construction, and construct a model of the solution2.6 Identify the five elements of a universal systems model: to a problem, exhibiting a degree goal, inputs, processes, outputs, and feedback
business practicesand it takes leaders within government for public policy to be enacted. So it was taughtnext followed by business practices. Business leaders must understand public policyprocesses so that they can influence the process as appropriate. The key focus in smallbusiness practices (a large number of civil engineering firms are considered small) is thedevelopment of a business plan which is affected by public policy and the leaders withinthe firm. Once the business plan is in place, it once again requires leaders to manage firmassets to accomplish assigned tasks and missions to meet the desired level of businessperformance.2.1 Data collectedDuring the 2007-2008 assessment cycle (the UT Tyler ABET record year), everyassignment of the
projects are still of the “made up” typecarried out by individual students, the vast majority of projects today deal with “real-worldproblems” and are usually conducted by student teams. The paper begins first by brieflyreviewing the design as a “thought” process, focusing on several dimensions of “designthinking” and how “design thinking” skills are acquired. Second, the paper reports on thedevelopment, implementation, and subsequent evaluation of a senior design course at aninternational university, where practitioners have played a major role in planning and teachingthe capstone course. The new, restructured design course, co-taught by practitioners from theRegion, has met its declared objectives and exposed students to professional practice
the evaluation of applicationmaterial submitted by the candidates (e.g., cover letter, formal application approved by theschool principal, scholastic record, vita, statement of interest, strength of letters ofrecommendation, commitment to develop and integrate hands-on engineering activities in thecurriculum, etc.). The finalists are informed of their selection in the program and asked toprovide a signed commitment to attend the program. A meeting of the project personnel andselected teachers is conducted to plan the summer program and facilitate teacher-mentormatching. Table I summarizes various recruitment and selection activities. Table I: Summary of Recruitment and Selection Activities January Web announcement
received her PhD from the University of Louisville and is Director of Assessment in the College or Engineering and Adjunct Assistant Professor in the Department of Adult and Higher Education at NC State University. Within the College of Engineering she serves as the coordinator of ABET and other accreditation processes, acts as an assessment & evaluation resource/consultant to faculty in different programs, develops and implements assessment plans, and serves as the primary educational assessment data analyst on the Dean’s staff. A particular interest is in helping faculty to develop and implement classroom-based assessment and action research plans to establish the effectiveness of instruction
venuesappropriate for the proposed paper. Several examples will now be presented.A tenure stream faculty member served on an institution’s diversity task force assigned todevelop a plan to help promote diversity at the institution. As part of their work, a number oftask force members attended a two week long diversity workshop in the summer highlightingways to incorporate diversity issues into the classroom. The faculty member used the methodspresented in the workshop in his own teaching, obtained student feedback, and prepared andpresented a paper for the ASEE Annual Conference.11 Page 15.849.3A newly tenured faculty member served on a university’s global
engineering proposal consisting of a problem statement, project objectives, preliminary B.O.M and a plan of action. This is due one week after the project is assigned. 2. Project Progress Updates: The students provide a weekly update to the instructor and their team either via email or through pre-scheduled meetings. Altogether 9 updates are required. In these updates the teams are required to communicate the following: a. What happened the past week? b. What will happen this week? c. What are the major issues the team is facing? 3. Project Report: At the end of the term the teams submit a comprehensive project report. This report provides the details of how the project is executed. It
to bringing the campus experience to the students viainformal discussions and videos and increasing their awareness of STEM-disciplines and careersthrough research-related classroom activities, to reach their parents we are planning to have anIMPACT LA Open House this year. The Open House will have tours of the research labs,hands-on activities, and informational sessions about undergraduate and graduate opportunitiesand STEM careers.Many studies have also stressed the importance of role models and mentors.4,5 During thesecond year of our program we actively sought out women and Hispanic graduate students toserve as role models. Figure 2 shows that since the start of the program, over 45% of thefellows have been Hispanic. Of the nine 2009-10
. Page 15.133.1© American Society for Engineering Education, 2010 Alternative Energy, an Introduction for EngineersAbstractThe purpose of this course is to give undergraduate engineering students opportunity to exploremultiple types of alternative energy sources and reflect on the implications of the implementationof a particular energy source. Lifecycle planning, engineering and management of particularforms of alternative energy sources such as wind turbines, photovoltaic, geothermal along withmany lesser known sources were researched by the students. The format of the course wasstructured such that each student had a unique topic area to research and present to the class thebasics of a given energy source along with current
through the Christmas break. However, students were continuouslymonitoring some of the samples upon their return until they freeze dried. The teacher used thisopportunity is a positive way by revisiting the concept that real engineering projects take longtime. Further, concept of redesign to address specific problems could also be addressed. At thisjuncture, no formal written input has been obtained from the students. However, judging fromtheir comments during the different phases of what the project, it is more than safe to say thatthey LOVED this project! Some of the motivational writings that teacher had them do prior tothe fabrication of the solutions were absolutely inspiring!According to the biology teacher, the things that were planned
Page 15.899.7innovation, diversity of thinking, and entrepreneurship. The goal of evidence-centeredassessment is to capture valid and reliable data for decision-makers to determine education andprogrammatic effectiveness12. Following are descriptions of an assessment plan and relatedoutcomes for the ERC Education and Outreach Nano-to-Bio Summer Camp. The assessmentplan’s pre-/post design was evidence-centered, potentially producing information to determineaccountability for student learning outcomes13. For design purposes, the word student refers tocampers participating in the Nano-to-Bio Summer Camp. The plan was developed andimplemented to answer the following question: How effective is the summer camp in forwardingthe purpose of the ERC
toexhibit mastery that is greater than simply knowing some computer science, electrical andmechanical engineering. Assessment of student learning therefore must go beyond measuring themastery of the various knowledge domains contributing to the discipline. Here we discuss ourcurrent assessment results, the tools we have used, and our plans for continuing assessment.There are three measures of success for any new program: 1. The number and quality of students attracted to the program, 2. The extent to which graduates are employed or admitted to graduate school, and 3. The degree to which the program achieves its educational objectives.The first measure, enrollment, is, sine qua non, the most important and straightforward. This hasalready
revolutionwill occur around a knowledge-based economy, whose intellectual capital will be the measure of itsability to compete in the global marketplace. Given the above issues, the curriculum in general and theengineering curriculum in particular must be examined from a new and dynamic perspective1. To meetincreasing demands for engineering professionals, several higher education institutions that traditionallyoffered degree programs in the liberal arts have started or are planning to offer engineering degreeprograms2.The university enrolls about 8200 students in over 100 programs of study in the Arts, humanities,sciences, and business. A Software Engineering degree has recently received state approval and aprogram in Electrical and Computer
AC 2010-1879: WRMT CASE STUDY: GIS WITH RULE-BASED EXPERT SYSTEMAndrew Ernest, Western Kentucky UniversityJana Fattic, Western Kentucky UniversityNi-Bin Chang, University of Central FloridaShalini Chitrapu, Western Kentucky UniversityPaige Davenport, Western Kentucky University Page 15.1386.1© American Society for Engineering Education, 2010 WRMT Case Study: GIS with Rule-based Expert System for Optimal Planning of Sensor Network in Drinking Water SystemsAbstractThis paper provides a case study in the application of the concepts of the WaterResource Management Technologies technology transfer concept presented at the2009 conference.The Technology Transfer Model[1
. 4-YR STEM Planned PROGRAMS concurrent credit STEM course for three-tier Concurrent credit articulation STEM courses being developed by partners in a two-tier articulation TWO-YEAR scheme PROGRAMS HIGH SCHOOLS Fig.1. Two- and Three-Tier Articulation and the Scheme