% 33, 94% Page 26.696.14Figure 16. Survey Question 7 Figure 17. Survey Question 8Question 9: What aspect(s) of this technology do you find to be particularly valuablewith respect to delivering outcomes specified by the NGSS?Question 10: How do you intend to assess the efficacy of the technology in deliveringthose outcomes?Many of the respondent’s answers to these open-ended questions relate to theproblem/project based learning approach. For instance, one respondent answered thequestion 9 stating: “The 3D printer solves the historical problem of not being able to make a prototype. Now the students can
the mobile phone, andentertainment. In addition, STEM-based examples, e.g., from medicine and physics arepresented. Page 26.717.2 We have assessed students’ response to the new way of learning, and received verypositive feedback. In addition, in order to get a large set of examples, students have been givenextra credit assignments that encourage them to explore and report on real-life topic-focusedinstances/activities. These assignments motivate students to think critically and also help themto better comprehend topics in DSP. It should be emphasized that the work is not meant to replace an existing DSP textbook.Instead it is
Paper ID #12410Factors Influential to Fourth Graders Engineering Learning and Identity De-velopmentDr. Kerrie Anna Douglas, Purdue University, West Lafayette Dr. Douglas is a Visiting Assistant Professor in the Purdue School of Engineering Education. Her research is focused on methods of assessment and evaluation unique to engineering learning contexts.Dr. So Yoon Yoon, Texas A&M University So Yoon Yoon, Ph.D., is a post-doctoral research associate at Texas A&M University. She received her Ph.D. and M.S.Ed.in Educational Psychology with the specialties in Gifted Education and Research Methods & Measurement
provision for the consideration of the views of faculty, staff, administrators, and students on matters in which they have a direct and reasonable interest.”ABET, formerly The Accreditation Board of Engineering and Technology, includes the followingstatement in its General Criteria 6 dealing with faculty: “The program faculty must have appropriate qualifications and must have and demonstrate sufficient authority to ensure the proper guidance of the program and to develop and implement processes for the evaluation, assessment, and continuing improvement of the program, its educational objectives and outcomes.”Many of the publications related to faculty governance are devoid of any material dealing
. Figure 2. Typical grade distributions for required sophomore-level courses in the College of Education (top) and the College of Engineering (bottom).Evaluating an Enhanced TranscriptOne goal of this paper is to explore how an enhanced transcript might be used to evaluate astudent seeking admission into a graduate engineering program. One proposed method is toadjust the course GPA based on the median class GPA. This is consistent with the typicalquestions included on most recommendations that faculty complete for students to be admitted tograduate school. A reference is asked to assess the applicant in relation to a peer group, which isoften the group of students earning the same degree at the university. The reference is oftenasked to rank
back through the transcripts analyzingbased on the themes and categories agreed upon. The data is compiled allowing for conclusionsand recommendations to be drawn from the results.Semi-structured interviews and coding of open-ended responses are commonly used evaluationtools in various fields, including in engineering as a tool for determining user needs andproject/product requirements; however, few engineers receive formal training in themethodology. The authors had mixed backgrounds and experience in this work. Carnascialireceived formal training as a graduate student working as a student assistant to engineeringeducation and assessment researchers. The training was carried out in multiple stages; first byreading about the methodology
students to make progresstoward the final goal. Lab notebooks are required for documenting the design process.Instructors use a common grading scheme across all sections of the course. The culmination ofthe course is a required robot competition involving the whole student cohort. The emphasis inthe competition is on participation. This competition has a corporate sponsor, and takes placeduring an Open House for prospective students.Impact Assessment Study – Part 1The first part of the impact study examined courses grades from students that have registered forand completed the embedded course sequence over the past four years. A total of 204 full-timeand part-time student records were examined. Of that number, 104 graduated from the program,88 are
Engineering at the University of St. Thomas where she directs the UST Center for Engineering Education. Her research group, the Playful Learning Lab, focuses on engineering and design education for learners of all ages. Page 26.911.1 c American Society for Engineering Education, 2015 Implementing and Evaluating an E-Textile Curriculum In an Engineering Summer Program for Girls (Evaluation)AbstractThis paper addresses the implementation and assessment of an e-textiles curriculum in a summerSTEM program for girls. The goal of this residential, five day camp is to help girls
Initiative.[5] Weinberg, Aaron, and Emilie Wiesner. "Understanding mathematics textbooks through reader-oriented theory." Educational Studies in Mathematics 76.1 (2011): 49-63.[6] Wang, J. An empirical assessment of textbook readability in secondary education. Reading Improvement, 33 (Spring ’96), 41-45.[7] Allington, Richard L. "You can't learn much from books you can't read."Educational Leadership 60.3 (2002): 16-19.[8] Kilpatrick, Jeremy. "Understanding mathematical literacy: The contribution of research." Educational Studies in Mathematics 47.1 (2001): 101-116.[9] Arcavi, Abraham. "The role of visual representations in the learning of mathematics." Educational Studies in Mathematics 52.3 (2003): 215-241.[10] Duval, Raymond
different experiencelevel than their first project.The standard assignment algorithm takes an iterative approach to assigning students. The numberof iterations is dependent on the current state of the assigned student population. In a singleiteration, the first step is to sort the students in order of priority from highest to lowest. Afterprioritization, the algorithm moves sequentially through three stages of assignment conditions,namely: student-professor agreement, externally funded assignment, and internally fundedassignment. After all three stages, the algorithm assesses which projects have met and have notbeen assigned their minimum number of in-discipline students. The algorithm then selects amaximum 5 such projects based on several
integrated into Portland State University’s existing Physics with Calculus Workshopcurriculum, being used in three of nine weekly sessions. At the end of the term, anonymous questionnaires were usedto gauge student interest in the device as a learning and motivation tool in the workshop environment, informingfuture research and development of the device. The data from the student surveys was also used to create a moreformal assessment of student knowledge gains. Positive results were seen in both categories, with unanimousstudent approval and a small median increase in test scores. A second prototype is under development, and couldbe more fully integrated into the workshop model in the future. Precision machining and an integratedmicrocontroller
voluntary, this arrangement was chosen to maximize the benefits for the most pro-active participants.Program Evaluation and Discussion The program was evaluated based on program content, pace, and climate. The programstructure was assessed through survey data and interviews conducted at the conclusion of theprogram. Survey data was collected at the beginning, midpoint, and end of the program.Program Content. Content for the iFEAT program was developed based on the assumption that Page 26.88.5participants would be interested in positions at either research-oriented or teaching-oriented
expected towork with each of their freshman groups, by serving as resources and points of support.Representatives from each student organization (not necessarily the same people each meeting)were required to be present to mentor their teams at each mandatory monthly meeting.The mentors were also charged with the responsibility to communicate with their teams outsideof the mandatory meetings, whether it be checking in with them, reminding them of upcomingmeetings or answering any questions in regards to completing their project. Additionally, thementors were expected to share with their teams any information disseminated by the studentpoint person and facilitators.Program Assessment ToolsTo assess how well the program achieved it goals and to gain
students attendinga book discussion in each of the first two years. At the end of each discussion, we facilitated apaper-based survey to evaluate the program and assess the intended outcomes. The evaluationwas comprised of a combination of logistical questions, such as “Would you prefer an eBook orpaperback copy of the book?” and assessment questions on a Likert-scale, provided below inTable 1. The complete list of questions is provided in Appendix A2.Table 1. Assessment of intended program outcomes 2014 response Post-Discussion Survey Element (N=1314) Q1. Reading this book was
introducing employability skills into course curriculum. The trainingemphasized the effectiveness of PBL to achieve educational outcomes.Lead instructors for the CATEP project from ACC and Aims expanded their expertise in PBLthrough participation in the Roots & Wings Instructional Leadership Institute initiated by the SCATE Center of Excellence. The Institute includes participant design of problem-based learningscenarios, tasks, and assessments to enrich technological education in their classrooms. Throughthe process, they became trainers for other faculty. Educational Design consultants from theBATEC project also conducted workshops for ACC and Aims faculty at the ACC campus. Theseprofessional development sessions had as their focus contemporary
. Page 26.478.1 c American Society for Engineering Education, 2015 Designing an engineering solution with the 4 P’s: People, Prosperity, Planet, PoliticsIn this paper, I describe a simple method for introducing sustainability and assessing ABETcriteria c, h, and j, in a 3rd year environmental engineering class. During this activity studentspose design questions that incorporate 4 P’s: People, Prosperity, Planet, and Politics. This allowsstudents to examine their design questions within economic, environmental, social and politicalconstraints (ABET criteria c). In addition this activity introduces contemporary issues (ABETcriterion j). Finally this exercise can help students see
and was co-editor of the reports Tech Tally: Approaches to Assessing Technological Literacy (2006) and Technically Speaking: Why All Americans Need to Know More About Technology (2002). In the late 1990s, Greg oversaw NAE and National Research Council reviews of technology education content stan- dards developed by the International Technology Education Association. He has degrees in biology and journalism.Mr. David R. Heil, David Heil & Associates, Inc. DAVID R. HEIL, President of David Heil & Associates, Inc. (DHA), and founder of the Foundation for Family Science & Engineering, is well known as an innovative educator, author, and host of the Emmy Award winning PBS family science program Newton’s
awindow into the mind of the problem solver, we must recall that it is still a social activity wherethe interviewer and interviewee are engaged in a dialog and react to each other. Specificallywith regard to motivation, our findings suggest interviewers can unintentionally impactparticipant motivation, and participant motivation can be difficult to discern when looking atorganic utterances or specific questions about motivation. As a result, researchers must becareful in interpreting expressions of motivation from the interviews regardless of the wayquestions are asked or not asked.As previously noted, this limitation in interpretation is similar to the cited limitation of clinicalinterviews being used for assessing conceptual understanding where
traditionallyfemale-dominated. Self-efficacy, or the perceived competence in completing a task, candetermine whether one will attempt a given behavior. Self-efficacy is found to be influenced by Page 26.605.4experience and change over time, and one of the methods for increasing self-efficacy is todevelop performance accomplishments in exactly the areas where self-efficacy is lacking, asdiscovered by Raelin (2011)10. These tasks also build the self-confidence and self-esteem ofthose who complete them. This is the impetus behind introducing a challenging wearableelectronics experiment in a freshman, interdisciplinary course.MethodTo assess the success of the
industry and associated fields.4.2 Revision of the Existing CoursesBesides developing new course modules, this project team also revises two existing courses -ITEM 402: Basic Geographic Information System and Remote Sensing (GIS/RS) and ITHM 405Risk Assessment.The ITEM 402 course introduces the theory and techniques of Geographic Information System(GIS) [5] and Remote Sensing [6] and their application. To enhance the GIS technologyapplication in emergency management, the course instructor incorporates more emergencymanagement resources in the GIS section. These include Hazus Multi-Hazards (MH) [7], ArealLocations of Hazardous Atmospheres (ALOHA), and HYSPLT model.EMT program also re-structures the Risk Assessment course. In the revised Risk
Studying Abroad and Creative Thinking. Applied Cognitive Psychology, 26(5), 768–778.6 Behrnd, V. & Porzelt, S. (2012). Intercultural Competence and Training Outcomes of Students with ExperiencesAbroad. International Journal of Intercultural Relations 36, 213-223; Caligiuri, P. & Di Santo, V. (2001). GlobalCompetence: What Is It, and Can It Be Developed Through Global Assignments? Human Resource Planning, 24(3),27-35; Jesiek, B. K., Haller, Y., & Thompson, J. (2014). Developing Globally Competent Engineering Researchers:Outcomes-Based Instructional and Assessment Strategies fro IREE 2010 China Research Abroad Program.Advances in Engineering Education, 4(1), 1-31.7 Jesiek, B. K., Qin, Z., Woo, S. E., Thompson, J. D., &
case?”) 2. Gather and assess relevant facts (address the non-ethical issues raised within the case and make appropriate assumptions based on available information) 3. Identify 1.stakeholders (generatechoice Make a tentative a list of based all possible individuals, on steps 1-5 groups, or entities who will be affected by the decisions to be made) Did you solve the problem with which you began? 4. Develop list of options (be imaginative; try to avoid “yes/no” dilemma; focus on whom to go to
students campus wide, Genevieve has personally facilitated many of the training sessions. Her goal is to continue working on developing applicable and universal tools to improve the functioning of both student and industry teams in institutions and organiza- tions across North America.Ms. Nicole Lynn Larson, University of Calgary Nicole is completing her final year of her Masters in Industrial Organizational psychology at the Univer- sity of Calgary under the supervision of Dr. Thomas O’Neill. Nicole has been working with the Schulich School of Engineering for the past two years. During this period she has been involved in several initia- tives such as assessing student learning and engagement, implementing systems for
retention of underrepresented students in engineering and also research about engineering global preparedness and engineering innovation. She also has research expertise in STEM K-12 and in STEM assessment. She chairs USC’s STEM Consortium. Page 26.983.2 c American Society for Engineering Education, 2015 Integrated project for sophomore-level engineering course contextualizationAbstractIntegrated curricula methodology has been investigated and recommended as a method to teachengineering. A group of engineering faculty at Cal State LA has designed and
perspective can be challenging since manystudents have not yet worked with earth materials nor have they considered soils as importantelements of construction. In these cases, analogies and comparisons with familiar everyday'things' prove helpful in improving student learning, developing a sense of proportion, andgenerating interest in a new topic. In this paper, we present some food for thought whenaddressing soil property evaluation in geotechnical engineering instruction. Specifically, wesummarize the results of a laboratory test program designed to assess the "engineering behavior"of different foods. Specific tests we performed and foods we examined include measuredconsistency of common grocery store items using the liquid limit device, torvane
observe and assist as needed. Each worksheet also includes few extra questions that students can continue to solve in class or on their own later. Worksheets are submitted online before the start of next class period, are graded for completion only, and solutions are posted shortly after that.Student Assessment and TestsBoth in-class and out-class activities are, in effect, assessed through the quiz and worksheets, butthese summative evaluations are given relatively lesser weights in the course grading system(20% for daily quizzes and 10% for completion of in-class worksheets; both are auto-graded).Student learning is primarily assessed through four objective exams that count for 70% of thecourse grade (15% for each of the first
memorabilia items as thearea for the project. A memorabilia table clock was chosen as the candidate. Section 2describes the project as given to the students, the theory involved and the method employedin the design, and manufacturing. There were eighteen student groups of three whoparticipated in the exercise. A typical sample of the work is described in section 3.Manufacturing the product became a challenge because of the shortcomings of the machines.Section 4 describes Assessing and evaluating the work. Section 5 describes the learningexperience and Section 6 draws conclusions.2 The ProjectThe project was to design a memorabilia clock for UAEU consisting of three parts (i) a clockinsert bought outside (ii) a body to house the clock insert and the
, interaction with the experiment came not from hands-on manipulation of hardware, but via the software interface, Lab-View, and video flowvisualization. However, a comparison of students performing the lab hands-on andstudents performing it remotely indicated statistically similar learning outcomes. Ellis etal. documented a similar remotely accessed experiment that allowed student to operateand make measurements on a Venturi nozzle.5 In this case an existing lab was retrofittedwith internet accessible controls and data acquisition to enable students at branchcampuses to remotely perform the experiment. Once again, an assessment of studentlearning comparing students in the lab and students using remote access indicated similaroutcomes.Finally
.The PBL that is considered in this article and that was implemented was based on the onesuggested by Felder, Woods, Rigarcía and Stice14 that considers the lifelong learning skills andproblem based learning. They suggested that the learning process may be broken down into thefollowing steps: Sense problem or need Identify learning issues Create learning goals and assessment criteria Select resources Page 26.1125.4 Carry out the learning activities Design a process to assess the learning Do the assessment Reflect on the learning processThe proposed PBL scenarioDesigning challenging scenarios for
’ learning, both during and after the process. For the development of these skills,teaching and assessment methods are required that are not traditionally found in engineeringeducation, and are unfamiliar to most engineering educators9 4 10.Faced with the necessity of changing the pedagogical practices in the teaching of engineeringcurricula, faculty members cannot simply assume that the instructional methods that worked forthem should work just as well for their students4. Professors must consider the characteristics ofthe actual generation of students; they are used to getting information in short visual bursts, theyare getting more and more used to being involved in participatory cultures11, and so they haveless patience for lectures and