collection including a screening questionnaire,artifact elicitation interviews, and critical incident interviews. This paper, part of a larger work inprogress by the authors, will expand on the collection methods used in order to inform others ofpossible approaches for understanding the skills learned and pathways taken by a sector of theadult community who embody many of the qualities vital to the engineer of 2020. In addition,by exploring the life pathways of makers, we can begin to see how classically trained engineersrenew their passion for engineering and how adult non-engineers learn and engage withengineering skills and knowledge. By presenting a method for assessing the skills learned byMakers along with descriptive examples of adults
Frameworkidentified and described the range of leadership behaviors exhibited within teams.Thematic coding of the ECT transcripts produced 11 categories of leadership behaviors: IdealBehavior, Individual Consideration, Project Management, Technical Competence,Communication, Collaboration, Motivating Others, Training & Mentoring, Delegation, Problem-Solving, and Boundary-Spanning (Table A). To assess the relative importance of these concepts,team members mentioning behaviors in each category were counted (Table B).Table A. Definitions of behavioral categories. Behavioral Category DefinitionIdeal Behavior Behaving as a role model for team members.Individual Consideration Recognizing that each team
AC 2007-2868: AN ANALYSIS OF MULTI-YEAR STUDENT QUESTIONNAIREDATA FROM A SOFTWARE ENGINEERING COURSEValentin Razmov, University of Washington Valentin Razmov is an avid teacher, interested in methods to assess and improve the effectiveness of teaching and learning. He is a Ph.D. candidate in Computer Science and Engineering at the University of Washington (Seattle), expected to graduate in 2007. Valentin received his M.Sc. in Computer Science from UW in 2001 and, prior to that, a B.Sc. with honors in Computer Science from Sofia University (Bulgaria) in 1998. Page 12.198.1© American Society for
research/teaching topic. The best practices also address how to maximize theprogram benefits both individually and for the institutions and ideas of how tosustain the benefits. Through first person testimonials from the contributingauthors, the paper presents personal experiences from Fellow and what was doneby Fellows, what we would do again and what we would do differently. The paperconcludes by describing how to get involved.IntroductionThe challenges in STEM education are well documented.1,2,3 For example, theOrganization for Economic Co-operation and Development (OECD) Program forInternational Student Assessment evaluated and ranked 31 countries in theirperformance of math and science education. This study found that the US ranked#19 in
that can be used to structure engineeringprogram evaluation/accreditation process and assess the capability of the program. The modelbeing developed is a five level model, called Engineering Education Capability MaturityModel23 (EECMM). It maps the activities that need to be undertaken to achieve accreditation tothe appropriate level of capability maturity of the engineering program. An engineering programthat has reached level 3 could be regarded as producing competent engineers. While one that hasreached level 5 has documented that it is producing competitive engineers. Page 12.754.11The second effort LACCEI has undertaken related to
using wireand batteries. They then create a speaker using the coil, by attaching it and magnet to a yogurtcontainer. By running wires off the coil, students are able to hook the speaker up to a radio andlisten. The activity can be extended to include equations for advanced students. Students mayvary the amount of current and monitor the changes in the speaker’s movement. They shouldthen check if the results match what is expected using the equation of a coil.Assessment MethodologyIn order to aid in the assessment of program outcomes, the Institute participants were asked tofill out an evaluation survey at the conclusion of the Institute. The participant survey wasdeveloped based on previous post-institute surveys, but also included specific
semesters of 2005 andFall semester of 2006. The process of developing this model will be discussed as well as projectoutcomes to date. Topics to be discussed are as follows: 1. Cases used at each school 2. Projects developed from the cases 3. Infusement processBrief Case Summaries From UniversitiesThe following summaries where submitted from Universities and are listed to show how theentrepreneurship cases were used and to provide some qualitative assessment. Only EIA casesare reported in this paper.Vanderbilt UniversityProfessor: Dr. R. Wilburn ClouseWhat part did the case play in the course? 20%HOD 2760Number of Students 90UndergraduateReason for using the cases1. Introduction to entrepreneurship +2. Critical thinking about entrepreneurship
testing and critical review (20). Class participation: participation in discussion of questions supplied before class (24), instructor’s subjective assessment contribution to the group discussions (16). Modelled after criteria from LEGO 375 (Table 1, M and N).Journal Format:electronic Regardless of how originally generated (e.g., typed, scanned, screen dumps, digital images), journal entries were required to be submitted in PDF format. Freeware multi-platform authoring tools were provided.Extant Journals: All student journal files (PDFs) are extant.3.2 Inquiry-Based Approaches to Autonomous Robotics (BIOL 803b)In Summer 2004, BIOL 803 began a 3-year transition from its traditional
and reliable knowledge in anethical manner” and validity and reliability can be approached through careful attention toconceptualization, data procedures, and findings presentation. Triangulation leads to credibilityby using different sources. To assess credibility, different methods to collect data for this studywere used: interviews, observations, and documents. In addition, peer debriefing was used toprovide an external check of the inquiry process, to discover biases, to clarify interpretations, andto discuss possible future directions. Finally, the respondents have an opportunity to review thedata gathered and provide or modify the information. This member checking technique isdescribed by Lincoln and Guba21 as the most important in
sample of the students at the four institutions (n=842). These studentshad not previously taken the longitudinal survey and represented a comparable sample ofstudents from these institutions. Data analysis for each of the methods is ongoing.I: Survey Questions on Group IdentificationA series of questions (items) designed to assess group identification with engineers andengineering students was administered to the longitudinal cohort of students twice, once in thefirst year and then again in the sophomore year. Four constructs comprised a number of items; afull list is given in Table 1. Three of the constructs used to explore specific dimensions ofengineering identity are based on constructs found in the Multidimensional Inventory of Black
part of project teams with classmates and thus were anticipated to generate 126 additional reports—a logistics nightmare.• Unfamiliar thinking skills: The thinking styles assessment of the entire class showed they had a low average in the thinking preferences required for communication and teamwork. Thus learning how to write good reports would require extra effort by the students.• Expectations: Many of the enterprise students did not see the need for having to take this class, since they had already been involved in their enterprises for two or three years and believed they knew how to write reports. Other students expected this to be an easy course. Both sets of expectations affected their attitude towards learning
reality was easier to make since the students had experienced the variousvehicle behaviors. Lectures frequently referred back to the experiments, reminding students ofcertain things they experienced and connecting those experiences with the mathematics. All theinformation discussed by the instructor during the course of the experiments was presented againin the lectures so that it could be reinforced and make its way into student notebooks.Results, Assessment, and ImpactA survey was administered to the students in the RVD1 class at the beginning (pre-test) and thenagain at the end (post-test) of the semester. The survey contained the open-ended question: Howcould engineering education be improved? An outside evaluator read and coded the student
begin an engineering ethics class with a brief lecture on theimportance of theory. While I won’t transcribe an entire lecture here, the main point Iwant to make is as follows. Page 13.569.6One interesting aspect of persons is our ability to give and assess reasons for ouractions.19 When interacting with others, people have the tendency to justify their actions,and we find some justifications better than others. One of the goals of pursuing ethicaltheory is in an effort to make the reasons we offer in defense of ethical verdicts stronger.While it may be unclear exactly what the strongest ethical system would look like, we dogenerally recognize a
start. Today’s engineers must be educated to think broadly in fundamental and integrative ways about the basic tenets of engineering. If we define engineering as the application of math and science in service to humanity, these tenets must include study of the human condition, the human experience, the human record.4When the engineering mindset is complemented with a broader education in the humanities, itbecomes a valuable asset for assessing various views of the world, and greatly informs problemsolving activities. In his book, The Introspective Engineer, Sam Florman writes that the universepresents itself to us as a mystery to be studied and acted upon. Later he adds that “…althoughengineering relies upon science and
Excellence: Toward the Best in the Academy, accessed http://programs.weber.edu/tlf/POD/packet7/v6n7.html on 1/28/2009.18. Erickson, B.L. & Strommer, D.W., Teaching college freshmen, San Franciso: Jossey-Bass, 1991.19. Angelo, T.A. and Cross, K.P., Classroom assessment techniques: A handbook for college teachers, (2nd. Ed.). San Francisco: Jossey-Bass, 1993.20. Donaldson, K., The Engineering Student Survival Guide, Third Edition. Mc Graw Hill Higher Education, 2005.21. Stiller, A., Venable, W., and McConnell, R., “Incorporating Study skills in a Freshman Engineering Course”, ASEE/IEEE Frontiers in Education Conference, Atlanta, GA, November 1995.23. Arco, J.L., Fernandez, F.D., Espin, A., and Castro, M.,”A Cross-Age Peer
capstonedesign experience within the curriculum. ABET Criterion 4. Professional Component guidelinesstate, “Students must be prepared for engineering practice through the curriculum culminating ina major design experience based on the knowledge and skills acquired in earlier course work andincorporating engineering standards and multiple realistic constraints.” These constraints arefurther defined in Criterion 3. Program Outcomes and Assessment which states, “Engineeringprograms must demonstrate that their students attain: (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, andsustainability[10, adapted
and do not meet the narrow criteria of success as definedin the larger project. Their narratives are not included here.Each interview was transcribed, coded for analysis, and then assessed using an interpretiveanalytic approach.9 The quotations have been edited for clarity and brevity. Digressions, restarts,and fillers such as “you know,” “uhh,” and “like” have been removed. These edits arerepresented by ellipses (…) in the quotation. Square brackets [ ] indicate the addition of a wordor words to help with contextualization. Text within a quote that is enclosed in parentheses ( )indicates a verbal cue (pause, laugh, chuckle). In most cases, individuals are identified as studentor participant only. Tribe and state of origin are not given to
pedagogicalcoverage of most if not all of the ‘a through k’ ABET student criteria. Often the CapstoneDesign course requires that teams of students in a single academic discipline worktogether to produce and an engineering analysis and design of a product or project. Amore “real-world” approach to the Capstone Design course has been introduced atNortheastern University’s School of Engineering Technology and has been provensuccessful, according to student and industrial advisor/judges assessments. The NU SETCapstone course is conducted by interdisciplinary teams of mechanical, electrical andcomputer engineering technology students (with an occasional integration of a team ofbusiness students), all working together as a team to complete a project. This paper
teaching-oriented schools actually read and assess your cover letter. Thecover letter provides you the opportunity to express why you are a qualified candidate for theposition and why you want to teach at that school. Our advice is to write this letter after you havecompleted the other materials, so you can briefly summarize the entire package in your coverletter.The Teaching Statement:Hopefully, you have been working on this statement for some time now and it is close to beingpolished. You should explain how you approach teaching and learning. Take time on thisdocument. The teaching statement is one of the most important pieces of the job applicationpackage for a teaching-oriented school. In terms of length, you probably want to keep it undertwo
complex environments (italics in the original).3Our motivation is to conduct formative assessment about the program so that we can continue toimprove upon the e-Girls Program results. We have not achieved parity–women remainunderrepresented in engineering. Boise State University’s service region still has a very lowcollege-going rate and an opportunity to positively impact future generations.Thus, this study had three primary goals – to learn about what kinds of pathways these girls havetraveled, to learn more about what programs and interventions (ours included) did have impacton those pathways (from the girls’ perspectives), and to hear a bit about where they see theirfuture pathways going. These goals and the framework that developmental
2015 12 42% 67% 25/33/8 8/25/42/25AA: African American, HS: Hispanic/Latino, NA: Native American/American Indian Project descriptions, and desired skills, provided by the researcher and visualizationmentor, were posted on the program website. During the application process student were askedto select and rank, in order of preference, three projects that interest them, and that they felt theirskill sets would enable them to successfully complete project milestones. Students were alsoasked to list their skills and provide a self-assessment in regards to their level of experiencevisualizing data. Using this information as a guide, students were matched with research projectsbased on