others to assess mixed methods study regardless of discipline. By providingsuch information, we hope to advance both the quality and use of mixed methods research inengineering education.Tashakkori and Teddlie7 define mixed methods research as the blend of “qualitative andquantitative approaches in the methodology of a study” (p. ix). According to Creswell and Plano Page 24.68.2Clark8 mixed methods research combines “methods, a philosophy, and a research designorientation” geared towards the combination of qualitative and quantitative data (p. 5). Thesetwo definitions clarify that mixed methods research must involve both quantitative
students.These are both modest sized spaces with capacities of 24 and 28 respectively. However, thespace concepts used can easily be applied to larger classrooms.These spaces were assessed using a behavioral instrument (the Student Classroom EngagementQuestionnaire), student comparisons to other facilities, and faculty observations. Active andcooperative learning approaches can be carried out in any learning space. However, learningspaces can be designed to facilitate and encourage these activities. Students report greaterinteraction with each other and with faculty in these specially designed spaces relative to otherlearning spaces they use. The Multimodal Classroom allowed the implementation of a newproject in one course that increased student time on
venture.Winners are monitored for several years following the competition to ensure funds areused properly as well as to assess the success rate of competition awardees. Page 9.1249.9 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for EngineeringFor the three years of the competition, nine companies have received awards rangingfrom $25,000 to $5,000. Of the nine, one has graduated from the UMD incubator,another is expected to graduate within a year, and the company that won last thecompetition last year is progressing through the admission
courses; as well as a CAREER award to explore the use of e- portfolios to promote professional identity and reflective practice. Her teaching emphasizes the roles of engineers as communicators and educators, the foundations and evolution of the engineering education discipline, assessment methods, and evaluating communication in engineering. Page 24.651.1 c American Society for Engineering Education, 2014 Graduate Student and Faculty Member: An Exploration of Career and Personal DecisionsIntroduction Practice in the profession can be a foundational
across disciplines?– Do students share the same standards?– And if so or if not, what does that imply about our teaching of writing or their learning?This paper describes the research design and methods of inquiry we used to investigate thesequestions and presents preliminary results for the first two questions. These questions assess theextent to which faculty and students perceive their disciplines to have shared standards for goodwriting and which standards they believe their disciplines value.Research designParticipantsFaculty and students at our engineering school were the study population for this researchproject. Faculty at this school constituted a self-selected group; in Spring 2004, we invited theentire engineering teaching faculty
REU(Research Experiences for Undergraduates) grants that would allow them to add undergraduatesto their research team.The recent literature on URP experiences tends to focus on one of three topics: programdescriptions summarizing different research approaches, URP assessments and evaluations, andguidance for conducting URP’s. This paper fits the latter, qualitative category.The papers that talk about approaches to undergraduate research describe a number of options.Among them are funded projects, unfunded projects, applied studies, theoretical studies, groupprojects, and individual projects. For example, one department presents students withundergraduate research projects that focus on demonstrating proven concepts [2
equity efforts undertaken under the auspicesof the NSF ADVANCE program, we categorized the ADVANCE scholarship into four types: 1)cross-institutional and institutional-level ADVANCE evaluation research;8-12 2) case studiesassessing the implementation and outcomes of specific ADVANCE initiatives undertaken byindividual institutions;13-19 3) historical overviews comparing and assessing the value of differentapproaches to advancing women in science and engineering;20-22 and 4) reflective accounts ofADVANCE-related politics and challenges.23 Since we examine this literature elsewhere, herewe limit our review to Fox’s10 study of ADVANCE initiatives. Building on Fox’s ideas, our goalis to contribute to a more in-depth understanding of what
when students do not. This attitudinal mismatch can be a cause formisunderstanding and discord between and among engineering students and faculty that,ultimately, has a detrimental effect on student learning and assessment of teaching effectiveness.This paper summarizes the results of a pilot study conducted within the College ofEngineering (CoE) at a western, land-grant, state university to extend the original workconducted at California Polytechnic State University (Cal Poly), San Luis Obispo (SLO). In2006, Cal Poly SLO researchers reported student and faculty perceptions of the ethics of studentuse of textbook solution manuals, as measured by direct question surveys of engineering facultyand students, differed significantly.1 In 2007
5 REVISED MANUSCRIPT ASEE 2012 – K-12 & Pre-College Engineering Division – Paper# 3021distances, heights, and angle of attack. Knowledge of energy method, kinematics, andmechanical design was utilized. The performance was assessed in both theoretical analysis andactual practice. 3. Educational Robotics Activities Based on the ALC ModelIn ITEC, we developed a train-the-trainer workshop for teachers, and a 1-day spring break campand 5-day summer camp for middle school students. The activities were built on the Lego®MindStorms NXTTM platform. 3.1 Train-the-Trainer Teacher WorkshopThis is a 2-day workshop for middle/high school teachers. Educational
surface measurement of specific components some form of improvement may be made overcommercially available instrumentation. Aerospace companies continuously seek quality control methods which areaccurate and robust. Many precision components, such as root-attachment areas of turbine blades, include intricateshapes and features having a small radius of curvature. Each of the above mentioned methods of measurement havedisadvantages to assessing the surface features of such components.Gap-guns are a hand-held, wireless form of laser gauge which may be used to assess surface features such as gapdepth and width, step height, hole-diameter, and radius of curvature. Measurements are made through lasertriangulation [2]. As these devices are hand-held
grades represent instructor evaluation of students and have been usedpervasively for probably as long as there have been universities. In contrast, the acquisition anddissemination of student evaluations of their instructors and courses have arisen relativelyrecently, from student-based efforts in the 1960’s. Many universities now incorporate evaluationresults in faculty salary and promotion decisions, and nearly all major U.S. universities regularlycollect such data. (Ory 1990, Seldin 1993) Students are probably the best resource universitieshave to assess instructor performance; they experience all aspects of many courses and thus cancompare and contrast such experiences. Moreover, aggregation of their responses provides alarge data set
Experimental University of T´achira in Venezuela. In addition, she has several years of experience in research and practice at graduate education level in the engineering field, with special focus on assess based perspectives, minoritized students’ socialization, and agency in graduate education. Her strengths include qualitative research study design and implementation. Her dissertation examined Latinx motivation to pursue Ph.D. in engineering, minoritized engineering doctoral students’ socialization and the impact of the engineering context in their experiences. Her research expertise lies in diversity and inclusion in graduate education, with a particular interest in minoritized students’ socialization, the engineering
for a ban. About half (52%) of US students believe universitiesshould change the way they assess students, and when asked how, 54% said to have “betterguidance on acceptable use of GenAI tools in assessments." The top three concerns among USstudents about the use of AI are: “Students could use it to cheat” (52%), “receiving incorrect orinaccurate information” (50%), and “data privacy” (39%). When asked how the use of AI hasimproved their learning, US students' top three answers are: “My writing skills have improved”(44%), “My grades have improved” (43%), and “My ability to compete[sic] course assignmentshas improved” (40%).The results of both surveys—considering the results of answers from US students only—showthat US students use AI in many
education 202 Not primary research 37 Not a journal article 3 Total 1825Next, the full text of the remaining 46 articles were read to assess eligibility. For an article to beconsidered eligible, the aforementioned mentorship must have occurred in, been facilitated by, orbeen associated with a STEMM student organization. After this screening process was completed,20 articles [36], [37], [38], [39], [40], [41], [42], [43], [44], [45], [46
assess the creative climate of graduate-levelengineering education and account for academia’s complex interpersonal relationships andorganizational structures. Results demonstrate that many of the creative climate dimensions areabsent from research group and classroom environments in graduate-level engineering education.This paper is one of the first to explore engineering graduate students’ perceptions of creativitywithin their academic and research environments and offers implications for how graduate-levelengineering education can better foster creativity.1. Introduction and Review of Relevant LiteratureEngineering is a creative act. At its core, the profession of engineering is focused on developingcreative and novel solutions to complex
©American Society for Engineering Education, 2024 Paper ID #42765 Commission Executive Committee and a Program Evaluator for both computer engineering and computer science. Estell is well-known for his significant contributions on streamlining student outcomes assessment processes and has been an invited presenter at the ABET Symposium on multiple occasions. He was named an ABET Fellow in 2021. Estell is also a founding member and current Vice President of The Pledge of the Computing Professional, an organization dedicated to the promotion of ethics in the computing professions. Estell is Professor of Computer Engineering
individualcharacteristics, preferences, and their alignment with occupational factors. Exploring thesetheories facilitates a nuanced understanding of how people can navigate their career paths basedon traits, preferences, and the inherent connection between personality and professional choices.Trait and Factor TheoryParsons' Trait and Factor Theory [4] aims to pinpoint the individual's characteristics (traits) andthe environmental or job prerequisites (factors), enabling job seekers to discover careers closelyaligned with their personal attributes [5], [6]. Parsons incorporated a self-knowledge componentinto the process of matching an individual's traits with occupational factors, emphasizing: • Self-Assessment: Individuals undertake a thorough self-exploration
measures tend to assess either thecentrality or the typicality of participants’ STEM identities. Acknowledging that both self-assessment and recognition by others as a doer-of-STEM are critical aspects of STEM identitydevelopment, McDonald et al [22] developed and tested a single-item measure the extent towhich students perceive they “fit” within what they consider to be a professional STEM identity.This measure allows for a student-centered approach to gathering data around how STEMidentity may be impacted by course content and the student learning experience.This current work looks to further our understanding of how the critical frameworks,interdisciplinary methods, and conceptual vocabulary associated with gender and ethnic studiescourses can
research in geoscience education investigating how people think and learn about the Earth. She conducts quantitative and qualitative methods to assess people’s understanding, perceptions, and behavior about complex environmental systems. She has published 65 peer-reviewed articles and secured more than $25M in external funding.Dr. Kelly Lazar, Clemson University Kelly Lazar is an Assistant Professor of Engineering and Science Education at Clemson University with a joint appointment in Environmental Engineering and Earth Sciences. Her research largely focuses on recruitment and retention of STEM students through the use of experiential learning opportunities such as virtual reality, field experiences, and undergraduate
experience with circuits.Demographic information was collected using the Comprehensive Assessment of Team MemberEffectiveness (CATME) teaming software. CATME is a web-based application developed byresearchers at Purdue University to improve the effectiveness of student teams in collaborativelearning environments [34]. Students were required to collectively complete thirteen weeklyhomework assignments and one group project in the collaborative learning framework.Additionally, students were encouraged to prepare for exams as a group. However, aside fromthis collaborative approach to coursework and study, students were required to individuallycomplete two midterm exams and a final exam.Participants and Data CollectionPre- and post-course surveys were
requirements. Use models to represent these requirements. Model Development: Create models that depict system structure, behav- ior, and interfaces. Iteratively refine and validate these models. Simulation and Analy- sis: Leverage models for simulations, trade studies, and performance analysis. Assess system behavior under various conditions. Verification and Validation: Verify that the system meets requirements and validate its performance against expectations. Configu- ration Management: Manage model versions, changes, and baselines. Collaboration and Communication: Facilitate communication among multidisciplinary teams using shared models. Tools: 3. Modeling Tools: Specialized software tools enable the
’ reflective sense of how toperform more effectively, while a component of intended learning [18], is not, on its own, an assuranceof improved future performance. In this light, we also discuss planned assessment of longer-termethics-related development among program students in Challenges, limitations, and future work.An illustrative example of students leveraging the post-activity comparative frame to enhance theirlearning relates to sensemaking about profit in the activity. As shown by Table 2, it became clearto students soon after the activity that profitability was approached quite differently by differentteams. This sense of difference appeared to prompt questions during team- and class-level debriefsabout the role of profit in the scenario, as
upper-levelundergraduate and graduate students at the University of Illinois Urbana-Champaign. The datasetcontains a mix of 100 correct and 400 incorrect submissions and underwent an extensivefine-tuning process with OpenAI’s advanced GPT-3.5-turbo-1106 model [15]. Therefore, ourresearch questions include: • RQ1: How can a proof of concept be designed and implemented to assess the feasibility of utilizing a generative AI model for providing semantic error feedback in educational settings, ensuring that the system avoids disclosing correct answers while enhancing the learning experience? • RQ2: How does the feedback from the fine-tuned GPT model differ in specificity and relevance compared to standard GPT models in the
asked open-ended questions about individual experiences in thecourse and about the major take home lessons from the course. Below we provide an overview ofthe observed results as they apply to the four questions specified above.Question 1: Technical proficiency of CSC 448 students. Our only instruments in assessing thefirst four CSC 448 learning objectives were grades for various coursework. CSC 448 had paper-and-pencil midterm and final exams. The exams consisted of a variety of questions askingstudents to (a) apply algorithms covered in the course to solving instances of bioinformaticsproblems, (b) modify studied algorithms and techniques to adapt them to solving a specificbioinformatics problem and (c) craft simple multi-step solutions to
: Choice of gradelevel based on literature review as well as timing of statewide standardized assessment (i.e., 4thand 8th grade), Pennsylvania System of School Assessment (PSSA)] Breaking the mold of thetraditional college semester-break trips, our program not only connects 3rd -7th grade students andcollege students, but also teachers, parents and a diverse group of community partners in thecollege academic experience. Important to note is that there is little to no cost to associates ofthe program through the use of publicly available and college-sponsored technology and low costsupport equipment (e.g. web cams). The semester-break trip is the project focal point in whichinquiry-based exchanges of science ideas, theories, and experiences take
the following weeks, students built their prototype first with LEGO® piecesfollowed by utilizing the maker space and their tools, available free on campus. They tested theirprototype and identified places that needed improvements.Students Assessment Students developed an engineer's notebook detailing the elements of the engineering designprocess. Each component was evaluated using a rubric designated for assessing engineering designsteps. At the beginning of this project, students were given a rubric made by NASA (Appendix 2),which they would be judged based on 5 criteria: identifying the problem, building a model or aprototype, testing and evaluating the design, optimizing the design, and sharing the solution. Tofully encapsulate this
two years of the project. Inparticular, we will focus on (a) a brief description of two labs (which are some of the labsavailable at http://dk12.ece.drexel.edu), (b) the effectiveness of the labs by assessing i) overallK-12 student attitude change in the program and ii) graduate and undergraduate experiences anddevelopment, and (c) lessons learned thus far in the project.Rationale of STEM for Artistic Students At an early age students are encouraged, both deliberately and inadvertently, to excel attheir proficiencies and strengths, which can be equally mathematical, artistic, reasoning,designing, etc. The tendency to play to one’s strengths at an early stage of a student’sdevelopment can be ultimately self-fulfilling, leading students
EvaluationMeasurement is considered to be a non-trivial aspect of the program. The ultimate goal ofdelivering a high number and quality of jobs and revenues is expected to require several years tobe demonstrated. However, program success must necessarily be judged on an annual basis.Therefore, some creativity is required in defining meaningful goals. At the time of this writing, thistask is not complete.The plans to monitor and assess progress toward realizing the partnership goals and relatedinnovation outcomes are listed below. The Incubator Director will partner with Professor RonnaTurner of the UA Office of Research, Measurement, and Evaluation in the College of Educationand Health Professions to lead the evaluation. The mission of the evaluation will be
picked up again in subsequent decades. (It‟s most recent incarnation is the learningoutcomes and assessment regime established by ABET‟s EC 2000, as discussed further below.)The 1944 Hammond Report is regarded by most to be a reiteration of the 1940 report. Indeed itwas a call to reverse the changes necessitated by the war, in a way that was similar to otheracademic policy statements of the era. However, there were other implications of the 1944Hammond Report that will be considered later on in this paper.The end of the war brought a series of significant developments, beginning with a conference onthe humanities organized by William Wickenden, who by then was the President of the CaseSchool of Applied Science. One of the outcomes of this