limit meantthat students achieving B- or better on the original test could not benefit from taking the retake. Italso meant, students retaking the test could not exceed the scores of those not eligible to take theretake. It was thought that the 80% limit would discourage students from using the first test as apractice test. The retake tests were similar to the original tests, to assess the application of thesame concepts using different questions, but at the same level of difficulty, and the same pointvalue. The retake tests were also paper-based tests and students had 50-minutes to completethem. A single test time for each retake was scheduled outside of the regular class schedule, oneweek after the original test.DataThe ESC 201 gradebook from
communication skills for students [4], [9] - [11]. Guest lectures are a methodpresumed to be appreciated by students for reasons such as the qualifications of the guest andbringing diversity in teaching. The study in this paper provides results of measuring studentperceptions for these events with respect to leadership development.Multiple studies have assessed the effectiveness of engineering leadership programs indeveloping leadership skills and the consensus is that students and alumni report learning theseskills through the lectures, in class activities, assignments and other experiences provided bythese programs [1], [4], [8], [9], [13], [14]. Other studies have investigated in general what arethe engineering student and alumni perceptions of the
technical leaders. The benefits of integrationinclude increased depth of student involvement, better academic integrity, as well ascross-program longitudinal assessment. Challenges of the programs under the umbrella ofTechnical Leadership and Communications (TLC) include organizational positioning, andconvincing both students and faculty that these skills are force multipliers for increased impact.Despite tremendous progress in codifying engineering leadership and delivering impactfulexperiential learning to our students, these programs and their overall governance remain a workin progress.IntroductionTechnical proficiency is not enough to empower current and future engineers and scientists tohave maximal impact on the world. This broad and
Materials Science Engineering from Alfred University, and received his M.S. and Ph.D., both from Tufts University, in Chemistry and Engineering Education respectively. His research investigates the development of new classroom innovations, assessment techniques, and identifying new ways to empirically understand how engineering students and educators learn. He currently serves as the Graduate Program Chair for the Engineering Education Systems and Design Ph.D. program. He is also the immediate past chair of the Research in Engineering Education Network (REEN) and a senior associate editor for the Journal of Engineering Education (JEE). Prior to joining ASU he was a graduate student research assistant at the Tufts’ Center for
as a trial-and-error cycle between them and the grader.The other key finding is that allowing regrades may not necessarily drastically increase studentgrades, particularly when using outcomes-based assessment. Faculty may be concerned thatstudents could use regrades to boost their overall grade to a level that does not reflect theirknowledge of the course material. This should not be a significant concern.1 One student only resubmitted 2 Activities and received a lower score on one of those two activities, resulting in asmall net decrease in final course grade due to regrades.References[1] L. A. Miller, C. J. Asarta, and J. R. Schmidt, “Completion deadlines, adaptive learning assignments, and student performance,” J. Educ. Bus., vol. 94
providedby presenting current resources that support lab report writing as well as the state of the currentstudy on the lab writing performance of students. The common purpose was clearly stated andwas based on the goals identified for the meeting by the PI team, namely (1) to provideprofessional development, (2) to facilitate improvements in the instructional modules, and (3) tobuild a community of practice.The 3-day CoP meeting schedule began with sessions devoted to instructor guidance (assignmentdesign and rubric design for writing assessment). Participants evaluated existing web-basedstudent-focused instructional materials [20-24] the details of which will be presented in thefollowing sections. On the second day, a model lab instruction
without any real thoughtabout why. Any participant in an ASCE ExCEEd Teaching Workshop can report that homeworkprovides practice in an unfamiliar context [1]. At the same time, the rise of crowd-sourcedhomework solution services makes finding and copying homework solutions (commonly referredto as “cheating”) exceptionally tempting for even the best students [2]. Clearly, the unquestionedrole of homework in engineering coursework should be re-evaluated, clearly defined, and refinedto accomplish its intended end.Fortunately, ASEE’s active educator community has not been silent on this topic. For thepurpose of this discussion, homework pursues a “three-fold goal… practice, instructor feedback,and self-assessment” while simultaneously considering
within the network led to thedevelopment of the Engineering Student Entrepreneurial Mindset Assessment (ESEMA)instrument as a tool to understand EM development within students. The ESEMAoperationalizes EM measurement through a 34-item survey. These items load on six factors ofinterest: ideation, open-mindedness, interest, altruism, empathy, and help seeking.This work investigates how measurement of these factors compare between engineering studentsand working entrepreneurs. Data were collected using an instance of the ESEMA and severalother instruments hosted in Qualtrics at Montana State University (MSU). The sample includes397 responses from junior and senior engineering students at MSU. Qualtrics Research Serviceswas utilized to collect
ability of the experts [8]. Moreover, researcher questions may unintentionallyinfluence responses, assessing expertise bay be difficult due to lack of face-to-face interactions,and attrition may exist [9]. But when appropriately administered, the Delphi method can be anextremely flexible and robust method [10].Our ProcessInitially, we met with stakeholders and an advisory board for the CISTAR project in Fall 2019 togenerate a definition for consensus. This group included faculty in chemical engineering who teachcourses related to light hydrocarbon industry processing, industry representatives, engineeringeducation experts, and teacher professional development experts. The group agreed to cease datacollection when the standard deviation on
student assignments and be used the following year to assess how students connectchemical engineering outside of the classroom. In addition, we hope that the increase in samplesize will show more distinct differences amongst the groups.References 1. Zappe, S., & Leicht, R., & Messner, J., & Litzinger, T., & Lee, H. W. (2009, June), “Flipping” The Classroom To Explore Active Learning In A Large Undergraduate Course Paper presented at 2009 Annual Conference & Exposition, Austin, Texas. https://peer.asee.org/4545 2. Bays-Muchmore, M. F., & Chronopoulou, A. (2018, June), First-Year Engineering Students Perceptions of Engineering Paper presented at 2018 ASEE Annual Conference & Exposition
learning, such as through independent learningor tutoring groups.9 The availability of YouTube and breadth of content on its platform makes ita particularly common tool for such learning to develop, with the popularity of certain videos andcreators helping to drive more interactivity with those videos.10 Learners may seek out additionaleducational content on their own to clarify their understanding, and well-crafted and interestingvideos can serve to fulfill that supplemental learning.11 Learners may additionally gain from thefreedom provided to them, in that they are able to form parts of their own curriculum based on thevideos they watch.12 However, it can be difficult to assess informal learning from freely providedvideos like those posted on
implementation by students in aninstructor-supported environment. In one such blended learning study, 40-74% of studentsviewed online videos before class, and the observed increase in scores on selected summativeassessments was not significant at the 95% confidence level (Corrias & Hong, 2015). Anotherstudy reported positive student responses to muddiest point and group-based activities in classbut did not indicate whether gains on summative assessments occurred (Ankeny & Krause,2014). In general, evidence for improved learning outcomes in flipped classrooms is lacking.Interestingly, Ankeny & Krause (2014) attempted to measure student attitudes toward classactivities using a new tool, the BME Student-centered Strategies (BSS) survey. This
aPharmacotherapeutics Course. American journal of pharmaceutical education. 78. 142. Doi:10.5688/ajpe787142.[8] M. Awatramani and D. Rover, "Team-based learning course design and assessment incomputer engineering," 2015 IEEE Frontiers in Education Conference (FIE), El Paso, TX, 2015,pp. 1-9. doi: 10.1109/FIE.2015.7344227[9] Borges NJ, Kirkham K, Deardorff AS, Moore JA. Development of emotional intelligence in ateam-based learning internal medicine clerkship. Medical Teacher. 2012;34:802–806.[10] Jacobson TE. Team-based learning in an information literacy course. Communications inInformation Literacy. 2011;5(2):82–101.[11] Conway SE, Johnson JL, Ripley TL. Integration of team- based learning strategies into acardiovascular module. American Journal of
gain the knowledge and skills necessary forengineering practice, but also an understanding of how this knowledge and these skills fittogether and support engineering work. It is therefore important for the engineeringeducation community to design curricular materials that help students with these goals.One such curricular intervention is a professional portfolio. A portfolio is a purposefulcollection of student work that tells the story of the student’s efforts, progress, orachievement in a given area. Portfolio construction aligns well with the properties of aneffective learning environment (i.e., it is concurrently learner-centered, knowledge-centered, assessment-centered, community-centered, and context-centered), and thusrepresents a
writing samples gathered inportfolios). It employs several assessment strategies (quantitative analyses of student writingsamples, quantitative analyses of written surveys, and qualitative analyses of interviewtranscripts).BackgroundThe EWI began in 2004 with the our shared sense of frustration over the quality of studentwriting skills in engineering coursework. Unprofessional language, poor grammar and spelling,badly-formatted tables, figures, and graphs, and data reported without any sense of context:these and many other problems were endemic in the UT-Tyler engineering program. Weattempted to address these concerns with the publication of a style guide,1 yet the changesbrought about by that tool were cosmetic, at best. The first year of this
students who enter college do not havethe adequate academic instruction at all. This asseveration was supported by most studentsregardless of their HS of origin. Students coming from public and private schools, transferredstudents from other campuses, students from rural zones of Puerto Rico and students whom arefacing academic difficulties, including students who have a somewhat difficulties in math Page 12.818.12courses, all agreed with this assessment. Another important factor that students mentioned werethe lack of professional guidance and counseling for rural
of Chemical Engineering and Executive Director of the Center for Pre-College Programs at New Jersey Institute of Technology. He has spent the past thirty years designing and implementing professional development programs and curricula for K-12 teachers in science and technology. At the college level, he collaborates on projects exploring teaching methodologies and assessment strategies in first-year college courses in the sciences, engineering, and computer science.Linda Hirsch, New Jersey Institute of Technology LINDA S. HIRSCH is the Program Evaluator in the Center for Pre-College programs. She has a doctoral degree in educational psychology with a specialty in psychometrics and a Masters
. (2006). Investigating the long-term impact of an engineering-based GK-12 program on students’ perceptions of engineering. Paper presented at the ASEE Annual Conference and Exposition.15. Cunningham, C., Lachapelle, C. & Lindgren-Stricher, A. (2005). Assessing elementary school students’ conceptions of engineering and technology. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition, Portland, OR.16. Knight, M. & Cunningham, C. M. (2004). Draw an Engineer Test (DAET): Development of a tool to investigate students' ideas about engineers and engineering. Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition
studentmotivation to pass the examination and not knowing the questions in the FEexamination may impact the assessment process. Therefore, four years ago, in2004, the department instituted a “comprehensive examination” which simulatesthe FE examination. Seniors are required to take two, two-hour longcomprehensive examinations, one in the fall quarter and the other in the winterquarter. The questions are purchased from an external source. The fall andwinter quarter examinations simulate the morning and the afternoon portion of theFE examination, respectively. The examinations count 20% towards their finalgrade in the capstone design course. This paper summarizes the results compiledfor the past four years for mechanics based courses. Student grades earned
, entrepreneurship, intrapreneurship, and sustainable change are studied. In addition,each student began development of his/her own leadership philosophy through various projectsand personal reflection assignments. Team work is emphasized and all students’ leadershipskills are both self-assessed and assessed by each team member.Near the beginning of the course, the students were surveyed on their general perceptions ofleadership skills including problem solving, teamwork, self-confidence, group management,ethics, organization, social awareness, and confidence. After the course, the same survey wasadministered. A comparison of the pre and post-course surveys yields some shift in perceptions.The students were also surveyed pre and post-course on their
., Kisenwether, E., Rzasa, S., and Wise, J., “Developing and Assessing Students’ Entrepreneurial Skillsand Mind-set,” Journal of Engineering Education, April 2005.10. Martin, R.L., and Osberg, S., “Social Entrepreneurship: The Case for Definition,” Stanford Social InnovationReview, 2007, 30-39.11. Jansson, D.G., Condoor, S.S., and Brock, H.R., “Cognition in Design: Viewing the Hidden Side of the DesignProcess”, Environment & Planning – B, Planning & Design, Vol. 19, 1993, 257-271.12. Kroll, E, Condoor, S.S., and Jansson, D.G., Innovative Conceptual Design, Cambridge University Press, 2001.13. Watkins, T., Ochs, J., Snyder, D. "Leveraging What Freshman Don't Know: Product Development in anIntegrated Business and Engineering Freshman Workshop