vs. Law/Employer: #1: Decision Making: 61% Class Case Study: 44% Class Case Study: 38% Class Case Study: 38% TriggeredSituationalInterest 36% Top3StudentSituationalinterestdefineshowstudentsconnecttolessoncontentandhowthey #2: Class Case Study: Ethics Codes & Morals: An Engineer’s Role in Ethics vs. Law
Advantagesexperimentation due to the continued integration of technology.The objective is to design an experiment to be used in laboratory Fan Input Velocity 1. Practical, hands on approachthat enhances the student understanding of convection process 2. Allows for design, build, and test opportunities for studentsand principles. A cost-effective design is generated with three coreprinciples: 1) Low Cost, 2) Low Maintenance, and 3) Concept 3. Can be incorporated into multiple laboratory
individualsevaluate both the personal and academic fit of each institution, along with advice for interpretingand comparing offers of financial assistance. While the specific focus of this paper is oncomparing offers to graduate programs (Master’s or PhD) in engineering in the United States, thegeneral principles may be helpful for a wide variety of post-graduate applicants.IntroductionA recent internet search on “making the choice between graduate programs” offered nearly 10million results, with the “most relevant” options being a variety of blog posts and opinionarticles. Such accounts have been published in popular media [1], [2] and by sites that focus onhigher education [3], [4], and their content ranges from identifying the pros and cons of
topic in recent years. Many questions arise that point toone theme: what can we do to bridge the gap found among minority students? There are a multitude of programs and organizations designed to increase the success ofminority students at engineering colleges across the US, such as the Society of WomenEngineers, Society of Hispanic Professional Engineers, and National Society of Black Engineers.Summer bridge camps and similar programs that help increase students’ academic preparation inmathematics have also been beneficial for underrepresented students (1, 2). At Louisiana StateUniversity (LSU), we provide a program that offers a potential solution to bridging the gap forminority students–Supplemental Instruction. Supplemental
in engineering or other STEM fields, either leaving theprogram or dropping out of college entirely, leave during their first-year.1–3 Previous studieshave shown that students who leave engineering are often in good academic standing and thatthere are many important non-cognitive characteristics of students who decide to leaveengineering.4–7 Attitude and self-confidence have been reported as two of the many factorsimportant for understanding and predicting engineering student retention.1,8,9 Longitudinalstudies that investigated how student confidence changes throughout their time in engineeringprograms have shown that student confidence is lowest during their first year6,10 and is loweramong female engineering students.11,12 Student
toengineering disciplines, and broadly aimed at promoting engineering and engineering education.Research and dissemination, and participation from faculty, staff, and non-engineering studentsand academic units in chapter activities are generally limited. In this paper, we describe a cross-college model of an ASEE chapter that includes an interdisciplinary network of faculty, staff,and students across colleges of engineering and education in a large Research I institution. Thechapter consists of five working groups: (1) K-12 engineering education, (2) undergraduateengineering education, (3) graduate engineering education, and (4) diversity and inclusion inengineering, and (5) research and dissemination. Using a bottom-up model, the working groupsdrive
vehicles, which includes Advanced Driving Assistance Systems (ADAS)and autonomous vehicle technologies, has grown rapidly in the last few years, creating a largedemand for engineers with knowledge and experience in these technologies. Currently, there are19 companies worldwide that are on track to have autonomous vehicle technology ready by2020, including Toyota, Google, and Tesla [1]. The increased popularity in developingautonomous and intelligent vehicle technology has generated a need for thousands of jobs in theindustry. However, the growing popularity of intelligent vehicles is outpacing the availability ofengineers with enough experience to fill the positions. According to Sebastian Thrun, founder ofGoogle’s self-driving car team, the
noticed occurrence with scheduled events put on by our studentchapter. To combat low attendance, we hosted a three-day “boot camp” between the spring andsummer semesters. This was considered opportune timing because students did not have classand had fewer time constraints, as they were transitioning from lesser to greater researchresponsibilities. Students were required to register for the event ahead of time using an onlineform, which also allowed us to determine beforehand how many students to expect. Theobjectives of this event were to 1) increase graduate students’ proficiencies in research- andcareer-related soft skills; 2) connect students with available campus resources; and 3) increasenetworking and communication between the engineering
, teaching is still a great tool to solidify their background in thefield of research and learn how to transfer their technical expertise to people new to the field. The author will pursue a career in academia upon graduation. His PhD research is closelyrelated to flight dynamics, and he had the opportunity to teach AERO 321 – Dynamics ofAerospace Vehicles – for three semesters at Texas A&M University. Teaching this class gave himan insight into the following: how to structure and deliver the course material such that studentslearn effectively and within the stipulated time, enjoy the process and can demonstrate theirlearning. To structure the course, the author made a choice between two general approaches inpedagogy [1]. In the first
: Discussion: ● Participants: ●In this poster, we will present Zoombinis (Figure 1, and 3), a ○ SSA-Phoenix Middle School Studentsvideo game to engage students in engineering design process. ■ Title 1Video games offer affordances for STEM education: ■ 100% free and reduced lunch ●● Potential for teaching and learning ■ 6th through 8th grade● Improving the skills of learners in the classroom. ○ Instructor
effort” that can beadapted to individual engineering students or various engineering programs [1]. Records of theexperience occur in the form of auto-ethnographic reflections taken from the participant-observation standpoint, consistent with previous research [2], [3]. These auto-ethnographicreflections were recorded weekly, and after specific instances of major development or learning.The problem statement for the independent design study was as follows: “Develop a means of brewing coffee and other hot beverages that is cost effective, zero maintenance, and conducive to increased collaboration and socialization between Civil and Mechanical Engineering cadets, faculty, and staff [4].”This problem statement was developed through
steps include collecting a larger data set from one or potentially multiple North Americanuniversities and carrying out statistical, rather than descriptive analysis. This analysis can help inunderstanding why institutions necessitate administrating diverse formats of doctoral exams, howstudents perceive it, and if certain formats are found to be more beneficial for the students.IntroductionContrary to doctoral education in Europe or Australia, completion of coursework and a set ofexaminations are the default requirement in North America [1]. The comprehensive or qualifyingexam (hereafter CQ) exam has been shown to impact the Time-to-Degree and Completion Ratesof Doctoral Students [2]. Passing CQ exam is as such a key milestone for an early
American Society for Engineering Education, 2019 Do I Belong in a Makerspace?: Investigating Student Belonging and Non-verbal Cues in a University MakerspaceINTRODUCTION: There have been dramatic trends displaying the problem of under-representation and lack of retention of females and minorities in STEM majors [1, 2]. Withthe long-standing stigma that predominantly men succeed and compose these fields, the sense ofbelonging for females and minorities in these fields is minimal, and entrance is unattractive [3, 4,1]. The idea of “belonging” is the sense of fit or acceptance that people experience in response tophysical objects, layout, and member representation that make up an environment [4]. Sense ofbelonging, therefore
in the field of engineering. PBL has long been shown to be an effectivemethod for student learning and understanding, particularly if thoughtfully integrated throughoutthe curriculum [1] and if instructors include key features, such as meaningful inquiries,scaffolded assignments, and consistent feedback [2]. Other studies have shown that PBL is moreeffective in deeper retention of material, satisfaction of both students and professors, anddevelopment of professional skills than traditional lecture methods [3]. However, the overalleffectiveness of PBL, and experiential learning in general, may vary widely depending on thenature and structure of the teamwork [4].This study was conducted at the branch campus of Texas A&M University
for Engineering Education, 2019Implementing Engineering Projects in a High School Anatomy Course (WIP)IntroductionThis Work-In-Progress is striving to introduce high school anatomy students to engineering andinfluence their perception on why engineering is important in the medical field. Students thathope to enter the medical field need opportunities to work on engaging problems that will helpthem develop creative and critical thinking skills that they can use in their future careers [1], and“thinking like an engineer” can help students develop those skills. The Science and EngineeringPractices set by the Next Generation Science Standards (NGSS) propose that students needopportunities to 1) develop and use models, 2) plan and carry out
knowledge and hone theircommunication, teamwork, and problem-solving skills. Given the nature of senior designcourses, they offer an opportunity for engineering programs to integrate the outcomes of ABETcriteria [1]. In contrast to much of the undergraduate curriculum, the problems that students workon in senior design tend to be more ambiguous, require the consideration of multiple tradeoffs,and have no ‘right’ answer. As such, engineering design problems require individuals to makedecisions about what counts as knowledge by assessing various sources of information,balancing constraints, and evaluating alternative solutions. These acts can be grouped together asepistemic cognitive processes and require individuals to reason “about specific
% of those with an apparent mental health problemreceiving treatment in the past year [1]. Although this study was able to draw out differencesbetween graduate and undergraduate students, it was limited in the analysis as it was focused oncomparing the two groups. Another recent publication regarding doctoral students’ well-beingpresented a systematic literature review detailing finding from 17 recent publications from fourdatabases. However, the broad review scope and search terms used makes this work hard to betransferable for a specific discipline [2].These findings demonstrate that an ideal study of graduate student mental health would bedesigned to focus specifically on a graduate population within a specific discipline. Multiplestudies
engineeringcourses and personal examples from the classroom are given.IntroductionEngaging students within the context of lecture-based courses is a key challenge for engineeringfaculty. One of the principles for good practice in undergraduate education is for instructors toencourage active learning.1 Active learning at its core is engaging students into activeparticipation (e.g., discussing, questioning, sharing, doing) rather than passive participation (e.g.,listening).2 Lectures traditionally promote only passive participation and suffer because attentionspans are finite.3 The instructor can, however, incorporate active learning activities into thelecture though few instructors within engineering choose to do so. One unheard voice is that ofteaching
make decisions to adapt his or her approach aschallenges arise, additional data is needed, or when the initial process does not go as planned.Research is in fact a rather “messy” process. In my own dissertation research, I also encounteredthis inherent “messiness.” This publication is intended to communicate the challenges Iencountered during my dissertation research study as I observed and interviewed tenundergraduate students working on a cross-disciplinary project team.This manuscript is written as an audit trail 1–4 in first person, active voice, following theAmerican Psychological Association (APA) guidelines 5. By writing this paper as an audit trail,I can be transparent about decisions I made during my dissertation work as well as
difficult for noviceresearchers to recognize and employ the multiple versions of this methodology in practice. Toprovide these individuals with a starting point for conducting grounded theory research, weorganize this paper into three overarching sections: 1) introduction to the methodology; 2) acomparison between two types of grounded theory traditions; and 3) strategies forimplementation. First, we establish an initial understanding of this methodology by providing abrief introduction of the GT methodology. Second, we compare and contrast two approaches ofGT: classic GT developed by Glaser and Strauss [1], and constructivist GT developed byCharmaz [2]. Lastly, we provide strategies for methodological implementation as situated withina current GT
programs thatfit their academic, research and professional goals [1]. US News & World Reports also providesan annual ranking of the top engineering graduate programs in the United States [2].While the information provided through online profiles and rankings can provide prospectivestudents with a starting point, in order to develop a robust graduate school application is itimportant to tailor your materials to each individual program to which you apply. This papersummarizes some key information about the typical graduate school application process forengineering disciplines, and provides practical advice for developing strong graduate schoolapplication materials. Please be aware that every institution has different requirements anddeadlines
/blog/2015/11/10/ zoombinis-take-your-students-on-an-epic-journ ey-of-fun-and-logic Figure 1. CT Aspects Retrieved from Newley et al.,(2018)
, collaboration, and more. The professionaldevelopment process to acquire these skills is not uniform and some graduate students may nothave opportunities to develop these skills prior to becoming a faculty member. In addition, thesignificant programmatic requirements for obtaining a Ph.D. often leave limited time and spacefor graduate students to explore “who they are” and “who they want to be” as a future facultymember.The Rising Engineering Education Faculty Experience (REEFE)1 intends to help graduatestudents address these professional development gaps through a faculty apprenticeship andpartnership program [1-3]. The faculty apprenticeship program matches graduate students inengineering education from two sending schools (e.g. locations masked for
field, women remain Future Selves [3]. Because middle school girls are not yet engineering identity develops in middle school girls.underrepresented in the field of engineering, with about engineers, identity will be operationalized as how girls view Understanding this development will help design20% of engineering degrees being awarded to women, themselves as potential future engineers. Identity programs to actively support identity development andwhich has remained essentially unchanged for 15 development is important to understand as an engineering help improve gender representation in the engineeringyears [1]. In order to rectify this situation, girls must
Values Values Values Research Questions Both/Engineering education 47 42.4 Note. Results based on N=111. 1. What do futures, values, systems, and strategic thinking “We are thinking like the fit of a priority scheme, that when I Unspecified 16 14.4 mean in the context of engineering education
impacts their future career goals.such as engineering. This may include beingunprepared for the culture and environment Counterfactual Thinkingof an engineering workplace, such asovercoming challenges due to work-life Counterfactual thinking1-3 is defined as thoughtsbalance, discrimination, or harassment. By about what might have been or alternatives tounderstanding how women process the reality. They are comprised of two components:situations they are experiencing, we are (1) an activation, often triggered by a negativebetter able to understand their motivation to experience, and (2) its content. Counterfactualpersist in the careers
Mixed Research (QUAL)1). Development Phase Data Collection Phase Data Analysis Phase Results Sorted Results Concept Map PROMPT DEVELOPMENT SORTING ACTIVITY
resources, such as the mentee/mentor ratio, total yearsof the undergraduate program and the local culture are some of the factors that govern the effectivenessof mentoring.Key words: role model, peer mentoring, academic counseling, sponsor, international students.IntroductionThe dictionary definition of the word ‘mentor’ is “an experienced and prudent advisor”, stemming fromthe Greek name Mentor, the advisor of the king Telemachus [1]. Mentoring differs from academiccounselling in many ways. Both the mentor and the mentee need to know each other at a personal level,and thus a stronger bond develops between the two, maintaining a lasting relationship often throughouttheir lifetime. In the ancient epics of India, Krishna became the powerful mentor of