the analysisFigure 1. Adaptation of the PRISMA flowchart for described search process [12] ResultsWe analyzed the remaining 18 articles that investigated race and gender in engineeringteamwork at U.S. institutions. Two of these articles studied race [13], [14], and ten paperswere related to gender [15]–[24]. Another six papers investigated both race and gender [25]–[30]. For better understanding papers’ results, we categorized them and each differentcategory describing one facet of teamwork covered by papers: collaboration, communication,leadership and self-efficacy, peer evaluation, perceptions of professors and students, teameffectiveness and outcome, and team formation. We extracted any
experiences, and overall program experiences.The format of the measures varied, including open-ended questions, ranking, and seven-pointLikert scales, ranging from 1 (strongly disagree) to 7 (strongly agree). Among several measures,we analyzed four common measures in both pre- and post-surveys, aligned with the NSF REUprogram objectives, such as (a) career goals after graduation, (b) self-efficacy in decision-makingtoward graduate school, and (c) perceptions of research knowledge, skills, and engineeringcareer paths, and (d) research expectations and experiences that enabled us to explore thedifferences of the impact of the REU programs on national versus international students.D. Data AnalysesFirst, we applied descriptive statistics for frequency
canbetter devise pedagogical strategies targeted at improving self-efficacy and retention of femalestudents.The objective of this study is to determine if women do in fact put more effort into anintroductory engineering graphics class, and to determine if this extra effort can compensate fortheir lower average spatial visualization ability, resulting in equal course outcomes such as examand homework grades. We hypothesize that: 1) female students put more effort (measured asquiz scores, time spent on homework, attendance, and homework scores) into engineeringgraphics courses; and 2) that this greater effort by female students results in roughly equalaverage course and exam grades for men and women. While other studies have observed
large Southwestern publicuniversity. The program implementation component included program data associated withcurriculum content and format, recruiting approach, and participant data from five cohorts. Dueto the delayed employment of the assessment, the evaluation component included findings fromtwo cohorts using pre- and post-quizzes on knowledge of entrepreneurship terms and pre- andpost-surveys that captured changes in perceptions of entrepreneurship and customer interview.The results of this study indicated that while student interest on entrepreneurship remainedconstant, there were significant improvements of participants in three areas of self-efficacy: (a)entrepreneurship, (b) marketing and business planning, and (c) customer interview
supportresources. These items, and several subsequent items about engineering attitudes and beliefs, areadapted from the POWER study [6], which investigated women’s persistence in engineeringcareers. The POWER survey was derived from SCCT [10], which lends the ability to comparethe proposed to previous literature. Although the POWER survey includes a measurement ofengineering self-efficacy, in this study we operationalize a self-efficacy scale relating to theABET student outcomes [25]. This tie between self-efficacy and accreditation student outcomescan offer insight into the actual tasks that engineering graduates use professionally. In addition toattitude and belief measures based in SCCT, we also include engineering beliefs factors relatedto
administered to both S-STEM scholar and non-affiliated S-STEM mechanical engineering students. Using a 6-itemLikert survey, students were asked to assed their perceptions and attitudes regarding each of theconstructs. At the end of the Spring 2019 semester, a post-survey will be administered to thepopulation for comparison.Survey Instrument In partnership with the psychology department, a survey was developed containingmeasurable items regarding their attitudes, perspectives, science/engineering identity, andresearch self-efficacy. Below are the measurable constructs and their items showing reliability. 1. Research Self- Efficacy: Measured by six items from the Scientific Self-Efficacy Scale [10] that assesses students’ ability to
; Ohland, 2012]. Includes phrases for innovation [33] and innovation self-efficacy [34] as a conception of self that express intrigue, interest, and excitement for observing and experimenting with new approaches. An overlap between achievement motivation and innovation exists since individuals with a high need to achieve also demonstrate a visionary sense and gain a sense of self-worth from excelling and doing something new. Dissimilar to achievement motivation, however, innovators have a creative competence [32] and a comfort with ambiguity [2]. Affiliation It tracks the extent to which a participant is personally capable of understanding the emotional make-up of other people and
survey originally comprisedfive individual scales in addition to demographic informational questions, and information aboutfuture anticipated career trajectories. The purpose of deploying a battery of writing scales was (1)to discern how, if at all, attitudes toward writing presented in different scales correlated with eachother; (2) to characterize dominant patterns or characteristics generalized over a large nationwidepopulation of engineering graduate students, and (3) also assess students’ writing attitudes inrelationship with their research self-efficacy, a topic on which students are more used to beingassessed. As part of a larger mixed-methods research design, the entire scale is deployed tocurrently-persisting engineering students and
insights into these findings. One possible explanation may be stereotypethreat, which Steele and Aronson [10] first described as being at risk of conforming to negativestereotypes within one's own group (e.g., men are better engineers, boys are better at math).Stereotype threat has been shown to inhibit performance and self-efficacy, which isinterdependent on self-regulated learning [11], [12]. However, research has also found thatfemale engineers can experience a “stereotype boost”, where they are motivated by the presenceof unfavorable stereotypes [13]. Female students in this study could be motivated by stereotypethreat to overcome negative stereotypes, especially since they were able to compare themselveswith peers, largely male, within
becoming a critical job skill of the future. When one learns coding, it can help lay out aplan, evaluate the methodology, troubleshoot problems, and implement a strategy. STEM Confidence Albert Bandura’s self-efficacy theory will be used to define STEM confidence. AlbertBandura’s self-efficacy theory is developed in the field of behavioral change and he states that“…cognitive processes mediate change but that cognitive events are induced and altered mostreadily by experience of mastery arising from effective performance” [11]. The mastery that arisesfrom this effective performance is defined as confidence. Confidence is the self-belief in people’scompetence or chance to successfully complete a task [12
conducting mixed methodsresearch. Thousand Oaks, CA: Sage Publications, Inc.[14] Merriam, S. B. (1998). Qualitative research and case study applications in education. SanFrancisco, CA: Jossey-Bass. [15] D. Chachra and D. Kilgore, “Exploring gender and self-confidence in engineering students:A multi-method approach,” Cent. Adv. Eng. Educ., Washington, USA, Tech Rep. Apr. 2009.[16] H. Chen, K. Donaldson, O. Eriş, D. Chachra, G. Lichtenstein, S. D. Sheppard, and G. Toye,“From PIE to APPLES: The evolution of a survey instrument to explore engineering studentpathways,” in 2008 ASEE Proceedings.[17] D. Baker, S. Krause, and S. Y. Purzer, “Developing an instrument to measure tinkering andtechnical self-efficacy in engineering,” presented at the 2008 ASEE
projects. Across two years, 32 teachers from two cohorts provided post-fairsurvey data from participating and non-participating students. We received data from 1,257students at the beginning of the year, but just 982 at the end of the year. Our matching effortsidentified 795 complete cases, which is the data we focus on here. See Table 1 for a breakdownof demographic information by teacher.MeasuresThe evaluation team developed these surveys to assess student attitudes towards science andengineering as well as experiences being involved in S&E fairs. Measures of science attitudes(value and self-efficacy for science) as well as science and engineering interest were drawn fromthe MSP-MAP project[12] that developed theoretically grounded measures
coursesections are often very large, and success rates are often well below campus averages.Project Rationale Attrition rates of undergraduate engineering students consistently hover around 50%throughout the United States [2-11]. Geisinger and Raman [2] conducted an extensive literaturereview on student attrition and retention including 50 and 25 studies, respectively. Theyconcluded that six factors contributed to students leaving engineering: classroom and academicclimate, grades and conceptual understanding, self-efficacy and self-confidence, high schoolpreparation, interest and career goals, and race and gender. Furthermore, a 2013 report [11] bythe Institute of Education Sciences (IES) reinforces Geisinger and Raman’s conclusions. Thereport
, we assume that play can be correlated tostudents who have a sense of control and are able to act toward their own intrinsic motivation.The challenge and skill required for the team project are used to assess the ability for the projectto remain engaging and are derived from flow theory and based on similar questions fromHamari and colleagues [7]. Engagement is also asked directly and is additionally comprised ofelements of concentration, interest, immersion and enjoyment. Together, questions fromconcentration, interest, immersion and enjoyment should proxy engagement in the learningprocess. Self-efficacy is used as a proxy for learning outcomes, though for participants whoprovide consent, course grades will also be used to measure learning
, 0.79 and 0.72 for Factor 1, Factor 2, and Factor 3, respectively.We examine correlations between the three factors of the ARS-30 and three factors on the CD-RISC scale. The factor analysis for the CD-RISC yielded three resilience factors based on theresilience literature (in measure of Self- efficacy, Faith and Tenacity). The results showed thatthe all three factors from the ARS-30 were significantly correlated (r = 0.24 ~0.69) to the factorsderived from the CD-RISC measure (see Table 2).Table 2…. Correlations between factors extracted from ARS-30 and CD-RISC 1 2 3 4 5 6ARS-30 1. Persevera 1 -.38** .55** .66** .39** .61
Consensus-Building Skills, (3) Dispositions– Valuing Community Engagement,Self-Efficacy, Social Trustee of Knowledge, and (4) Behavioral Intentions.Interpersonal Reactivity IndexThe Interpersonal Reactivity Index [15] is a self-report psychometric instrument that measuresself-reported empathic tendencies via four subscales. In this study, we utilized only twosubscales from the Interpersonal Reactivity Index: (1) Perspective-Taking and (2) EmpathicConcern. Perspective-Taking represents one’s tendency to consider the perspectives of another orothers in general (i.e., non-engineering or science specific) everyday interactions. We describeperspective-taking as cognitive, meaning its focus is on mental processes and rational thought, aswell as other
EEPs – entrepreneurial self-efficacy, desirability, entrepreneurial intent, life transitions,information and resources, opportunities and barriers. Recommendations for engineeringeducation researchers and implications for entrepreneurship education research are offered.IntroductionWith the advent of a technology-driven global economy, institutions of higher educations areincreasingly investing in providing undergraduate engineering students with learningenvironments that assist in their professional formation. In addition to technical skills, academiahas recognized the importance of developing domain-general skills needed to solve futureproblems [1]. Engineering entrepreneurship education has been noted as a platform fordeveloping 21st century
processes: Inside the black box,” Public Administration Review, vol. 66, no. s1, pp. 20–32, Dec. 2006.[19] A. M. Thomson, J. L. Perry, and T. K. Miller, “Conceptualizing and measuring collaboration,” Journal of Public Administration Research and Theory, vol. 19, no. 1, pp. 23–56, Nov. 2007.[20] S. Y. Yoon, M. G. Evans, and J. Strobel, “Validation of the teaching engineering self- efficacy scale for K-12 teachers: A structural equation modeling approach,” Journal of Engineering Education; Washington, vol. 103, no. 3, pp. 463–485, Jul. 2014.[21] M. Knight and C. M. Cunningham, “Draw an engineer test (DAET): Development of a tool to investigate students’ ideas about engineers and engineering,” presented at the ASEE Annual
smart devicesMethodsA university teaching, learning and technology research team collaborated with the courseprofessor to conduct the study. All students in both the TLC and ALC courses were invited tocomplete three surveys during the semester—one at the beginning of the semester, one in themiddle of the semester, and one at the end of the semester. The first survey assessed students’self-efficacy, intrinsic values, and test anxiety [10]. The second survey included questionsconcerning students’ perceptions of the helpfulness of the class sessions and study hours in atypical week. The third survey reassessed students’ self-efficacy, intrinsic values and testanxiety, helpfulness of the class sessions, and study hours. Additionally, questions
report theirperceived level of self-efficacy in different topics related to ST and SE. This section representsan indirect measure of students’ abilities because students are reporting their perceptions of theirabilities. By contrast, in the second section, students need to apply knowledge in ST and SE toanswer several questions (i.e., direct measure of students’ ability to apply ST and SE conceptsand skills). Each question provides a product or system familiar to most engineering students forcontext.The first section of the STSS includes 44 items asking students “How well do you think that youcan apply the topics mentioned below to an engineering project?” Student responses arecollected via a 5-point Likert scale, ranging from 1=Not at all to 5
, which may be influencedby an intense design experience, such as the BioE senior design project described in this paper.Thus, a post survey is planned for the end of the spring 2019 semester to measure potentialchanges in self-efficacy following student completion of the interdisciplinary teamworkexperience over the two semesters. Additionally, at that time, changes in students’ competenciesin collaboration will be assessed using the Interprofessional Collaborative CompetencyAttainment Survey Instrument [18]. This is a 21-question survey instrument that examinesstudents’ pre-class and post-class collaborative competencies in the following interprofessionalcore competency areas [19]: communication, collaboration, roles and responsibilities
groups (a total of 9 participating students). Proper humansubjects’ approval was obtained prior to the conduct of this study. More details on this specificstudy are included in the authors’ peer-reviewed journal article accepted for publication for theInternational Journal of Engineering Education [19].4.1 Survey ResultsTwo validated survey instruments were used in the assessment of the project: (1) students’adaptive learning engagement in science [20]; and (2) the perceived competence scale [21]. Thestatements for the self-efficacy and self-regulation surveys are presented in Table 1.Table 1: Statement for self-efficacy and self-regulation surveys Statement for Average Student Statement for Average Student Responses Responses for
provide students with standards that they can use to monitor and evaluatetheir learning. For educators, gaining insights into students’ intentional and goal-directedprocesses makes visible students’ orientations, motivation, and intent because they make theirunderstanding related to a task explicit and show how they are translating their tasks into goals[2].From a social cognitive viewpoint [3], self-regulation refers to learning processes that includestrategies for achieving goals on the basis of self-efficacy perceptions. This viewpoint accountsfor self-regulated learning strategies, self-efficacy, and commitment to goals. Thus, implying thatstudents are metacognitively, motivationally, and behaviorally engaged in their own learningprocess
two instances in time: their Fall and Spring senior capstone designcourse. The findings from the prior longitudinal study also impelled the authors to implement aqualitative survey to gain insight into the student’s perspective of their motivation. Both of thesurveys measure five factors of student motivation: cognitive value, intrinsic value, self-regulation,self-efficacy, and test/presentation anxiety.This paper presents quantitative and qualitative results to further explore the impact of studentmotivation on their performance in senior capstone design courses. The study also examines thestudent’s motivation factors with regard to their demographic information. This includes thestudent’s gender, age, residency (domestic or international
validated measures includingthe STEM Fascination and Competence/Self-efficacy Scales [27-28], the STEM Career InterestSurvey (STEM-CIS) [29], the Modified Attitudes toward Science Inventory (M-ATSI) [30], andthe Persistence Research in Science & Engineering survey (PRiSE). We selected items fromthese instruments to address unique aspects of the constructs of interest within the engineeringcontext. When possible, we tried to select entire scales from validated instruments. Therefore, wedid not select items from other existing measures when they were redundant with items alreadyincluded from an intact scale. We added 21 items in the following areas:performance/competence (8 items), STEM fascination (6 items), interest (4 items
Surveys, Dimensions of Success (DoS) Observation tool, pre/post topic self-efficacy, and survey student interviews. The results showed that engineering design activitieshad a positive impact on attitude towards STEM learning and careers. Integration ofengineering design principles, student demographics and evaluation instruments and resultsare discussed in this paper.IntroductionEngineering is a natural platform for the integration of science, technology, engineering, andmathematics (STEM) content into K-12 classrooms, while sparking creativity amongst youngminds. Research around effective learning in K-12 classrooms demonstrates that anengineering approach to identifying and solving problems is valuable across all disciplines.Educators and
”, Self-efficacy beliefs of adolescents 5, 307–337.http://web.stanford.edu/dept/psychology/bandura/pajares/014-BanduraGuide2006.pdf[11] Barr, D. A.; & Burke, J. R. (2013). “Using confidence-based marking in a laboratory setting: A tool for student self-assessment and learning.”The Journal of chiropractic education, 27(1), 21. http://www.ncbi.nlm.nih.gov/pmc/articles/PMC3604960/[12] Carberry, A.; Lee, H. & Ohland, M. (2010), “Measuring engineering design self-efficacy”, Journal of Engineering Education 99 (1), 71–79.http://www.ceeo.tufts.edu/documents/journal/carberry_lee_ohland.pdf[13] Fantz, T.; Siller, T. & Demiranda, M. (2011), “Pre-Collegiate Factors Influencing the Self-Efficacy of Engineering Students”, Journal ofEngineering
,manufacturing, construction technology, aviation technology, and automotive technology [5].Moreover, Latinos, as the largest ethnic or racial minority group in the United States, suffer froma greater gender gap in STEM careers (more men than women) compared with Asians andAfrican Americans [6], [7]. These gender gaps in STEM interest and STEM-related careerssignal the need for broadening the participation of women and students of color in STEM fields[8]. There is mounting evidence of the impact of STEM enrichment programs on changingstudents’ attitudes toward STEM subjects, stimulating the interests of K-12 students, influencingstudents’ self-efficacy, improving retention for STEM in schools, and expanding students’ senseof STEM career options
interactive relationship withindividual characteristics and situational conditions [20]. The individual characteristics of careermotivation theory are identified as (1) career identity, which is the relationship between one’scareer and identity, including the desire for upward mobility; (2) career insight, which is theperceptions of oneself and the organization, and how these perceptions are related to careergoals; and (3) career resilience, which is the resistance to career disruptions in less than optimalwork environment conditions, including self-efficacy, risk taking, and dependency [20]. Thesituational conditions include support for career development, opportunities and rewards,structure for goal setting, organizational flexibility, competitive
choice, but that there can be barriers that confound decision making. For example anindividual’s prior experiences and background (culture, gender, genetic endowment, sociostructuralconsiderations, and disability or health status) impact the nature and range of their career possibilitiesconsidered. In theory, SCCT aims to describe the intersection of self-efficacy beliefs, outcomeexpectations, and goals11. Self-efficacy, defined by Bandura, is one’s own belief about one’s ability toachieve a task12. This derives from four primary sources: performance outcomes, vicarious experiences,verbal persuasion, and physiological experiences. Self-efficacy is a task level theory; it is useful in classsettings where students can perceive separate domains