his research, he has devised a few teaching activities, including Lab-in-Class and Lab-in-a-Bag. He has received several teaching awards for his effort in developing the new activities. c American Society for Engineering Education, 2019 Preparing Undergraduate Engineering Students for their Profession – A Novel Curricular Approach Joel R. Howell1, Christos S. Ferekides1, Wilfrido A. Moreno1, Thomas M. Weller2, Arash Takshi1 1 University of South Florida, Tampa, FL 2 Oregon State University, Corvallis, ORAbstractThis Work-In-Progress (WIP) paper describes a
, assessment plan, andinstruction design of this module. We also share thoughts on adopting this module in otherengineering programs.Literature ReviewEthical Leadership (EL)A recent and emerging body of literature investigates the ethical dimension of leadership (Brownet al., 2005; Brown and Treviño, 2006; Den Hartog, 2015; Bachmann, 2017). Brown et al. (2005)defines EL as “the demonstration of normatively appropriate conduct through personal actionsand interpersonal relationships, and the promotion of such conduct to followers through two-waycommunication, reinforcement, and decision-making.” This definition encompasses four aspects;namely, an ethical leader 1) models ethical behaviors; 2) gives voices to others in theorganization; 3) creates a
resourcesexploitations then propose solutions that can be modeled and tested.IntroductionSustainability is defined with different terms within different scopes which confirms itsimportance to many professions. For example, sustainability in the economical scope can bedefined as the ability to maintain and increase the national Gross Domestic Products (GDP) orthe total amount of annual production produced within the borders of the country [1]. In anotherscope, sustainability is the maintenance of the community social structure and services that meetthe needs of the current communities and guide the future generation to uphold healthy socialvalues [2]. However, it takes faith in sustainability to build the pillars to save resources for nowand later. In other
and energy balances. In the treatment group, students wereassigned ten textbook problems and nine YouTube problems. While the control group obtainedhigher PROCESS scores at the beginning of the study, both groups exhibited similar problem-solving skills near the end. Also, the rigor of student-written YouTube problems was similar totextbook problems related to the same course concepts.IntroductionIn June 2018, over four billion people had access to the Internet, which represents about 55% ofthe world’s population [1]. Almost all current undergraduate students began interacting with digitaltechnology at a young age and today many everyday tasks revolve around utilization of devicessuch as cell phones, tablets, and computers. These students are
discussions pave way to a more visual and experientialphase [1] – [5]. The author has been involved in previous studies focused on making studentslearning activities more hands-on and experiential among undergraduate students [6], [7].The overall learning of these students can be made more interactive when they are challengedor tasked to solve a problem with supervised guidance. This paper focuses on pedagogicalaspect of problem-based learning and its application for greater student engagement inquantifying the long-term effects of land subsidence and rising sea levels in coastal or littoralareas.Studying the effects of sea level rise gets complicated when long-term land subsidence is alsoconsidered. Students usually get confused when tasked to
widespread among students, despite the differentpreparation levels among first year students and the fact that many women and students ofcolor report first and second hand discriminatory experiences before they graduate. We thussuggest that a “color-blind” and gender-blind undergraduate professional culture is constructedby students to obfuscate inhospitable climates and persistent structural challenges for womenand students of color.INTRODUCTION:Recent national reports show the United States does not produce enough engineering studentsto stay globally competitive with other countries [1, 2]. Furthermore, employers consistentlyexpress their need to hire a more diverse workforce as well as students who exhibitprofessional engineering competencies in
2016 to 2026 makingthe severe workforce shortages of the construction industry a nationwide crisis [1] [2][3][4].Coupled with workforce shortages, lack of diversity and challenging student transitions into theconstruction profession remain a huge concern. These emphasize the need for constructioneducators to attract and prepare minority students who persist into construction professional (CP)roles towards a more competent and diverse construction workforce for improved 21st centurybuilt environments [4]. CPs play a critical role in the design, engineering, planning,development, management, operation, maintenance, sustainability, deconstruction, anddemolition of built environments. The dynamic and competitive construction industry is
and I have worked in the following lines of work: 1. teacher training and teaching managers, 2. education in mathematics , science and technology (engineering), 3. the evaluation of / for the / and as learning, 4. the design, revision and / or adaptation of didactic or instructional materials, and 5. pedagogical advice in research and innovation in the classroom (docents practices). Currently, I am a consultant and my topics of interest are the research in the classroom, particularly the study of teaching practices as generators of networks and learning commu- nities, the relationships between science, technology, society and culture, and the evaluation of programs and educational policies. I believe that my
’ confidence in chemistry, engineering andcomputer skills increased as a result of the course. The most significant increases were observedin engineering skills because initial confidence levels in this area were low. A majority ofstudents reported increased interest in STEM fields and 100% of students (during the 2018cohort) reported that increasing their confidence in science, math and engineering contributed tothis intensified interest. This program evaluation reviews the program’s objectives, format,teaching tools, student feedback and plans for future programming and assessment.IntroductionThe need for STEM-educated workers is long-standing and well-established [1, 2]. The USgovernment has responded by encouraging the development of a STEM
designs must follow appropriate standards.The courses use active learning activities throughout. The particular framework is the scaffoldedknowledge integration framework proposed by Linn [1]. This framework describes knowledgeintegration as the process of linking, organizing, and structuring students’ ideas, views, andtheories to form a specific concept. With this framework, Linn [2] proposed the knowledgeintegration environment (KIE) principles and guidelines on how to design learning activities,which are: Make content accessible – use personally-relevant problems and connect new and existing knowledge. Make thinking visible – provide visual representations Help students learn from each other – design social activities to
IntegratedManufacturing (CIM) course is taught for the Bachelor of Science (Mechanical Engineering)students as an elective during their graduation year. To develop in-depth knowledge and studentunderstanding of the CIM course and to help them prepare for the work force; course deliverymethodology and the assessment strategies were modified to adapt PBL. Project Based Learning(PBL) - a successful teaching strategy in higher education has been gaining popularity in theengineering education community. The details of the projects, requirements, assessment strategyand the benefits of adapting PBL approach are presented in this paper.Keywords: Project based learning, Computer Integrated Manufacturing, Engineering Education,Mechanical Engineering.1. IntroductionThe
partnered with public libraries to conductengineering activities with children in grades 2-5. This partnership enhances the capacity of thelibrarians to conduct hands-on engineering, provides role models to children, and builds the ability ofthe engineers to inspire children. Project BUILD libraries offer a variety of programs that maximizelearning in the library setting: they are social events that directly engage caregivers; center on creativity;and encourage children to try again through the Engineering Design Process.Additional InformationProject BUILD is a National Science Foundation-funded project. In Project BUILD, librarians conduct 1 – 2hour programs for children in grades 2-5 once a month for 4 months, with engineers from the
StudentsIntroductionDuring the past two decades, active learning techniques have received a growing attention ineducational research. Particularly in science, technology, engineering, and mathematics (STEM)fields, traditional lecturing has indicated a 55% increase in failure rates of undergraduate students,compared to active learning methods [1]. Furthermore, active learning has proven to significantlyenhance students’ examination performance and educational achievements compared to passivelearning [1, 2]. In Biomedical Engineering (BME), active learning can be incorporated throughvarious techniques such as problem- and project-based learning [3]. Such approaches lead studentsto a deeper and more efficient retention of new concepts. Moreover, these methods
approach.Various teaching styles are adopted and used in different classes in universities and vocationalcolleges to engage students in the learning process. Traditional learning techniques such as usingregular lecturing or presentations do not engage the students that often in the learning process.Innovative approaches to lecture a topic in class can include many forms of teaching andinstructions such as demonstrations of experiments [1], students’ participation in a survey ormultiple choice answers using rubbing answer sheets or clickers, group discussion, and othermicro-insertion approaches [2].According to Weimer [3], PBL starts with problem introduction and students are asked to solvethese problems while learning the concepts in parallel with
and their exposure to theassociated software tools. Eleven of 15 students said they were more engaged during the classsessions with active learning versus lecture. This paper will describe the projects used andvarious affective assessment results. The paper will also describe plans to formally connect thiscourse to student makerspace use and senior design projects to further integrate optics andphotonics into the electrical engineering curriculum.1. Introduction and BackgroundProducts that incorporate photonics technology include optical fibers and display technology,and these technologies are ubiquitous in today’s society. The significant increases in research,development, and job opportunities involving optics and photonics are raising
described under theDesign Research section of this article. [4]Product Units Unit Price Total PriceOutside Pieces (figure 6) 2 $10 $20Inside Pieces (figure 5) 2 $10 $20Middle Piece (figure 7) 1 $15 $15Connectors (6 pack) 1 $5 $5Total Price Per Set Plate $60Computer Aided Design (CAD) sketch and assembly CAD drafting is essential as part of the design project. Several 3D drawing files weredesigned and created in order to get a
Virtual Laboratory on Fluid Mechanics’. c American Society for Engineering Education, 2019 126th ASEE Annual Conference and Exposition Tampa, Florida, USA, June 15 - 19, 2019 Zhang, Z., Zhang, A., Zhang, M., Esche, S. K. Project-based Robotics Courses for the Students of Mechanical Engineering Technology Zhou Zhang, Andy S. Zhang, Mingshao Zhang, Sven K. EscheAbstractRobotics program at many Colleges has continued to become more and more popular. However,the students of the robotics program of Mechanical Engineering Technology (MET) are facingthree difficulties: (1
Programs DivisionAbstractThis complete research paper builds on our ASEE 2018 paper “Work in Progress: Strategic,Translational Retention Initiatives to Promote Engineering Success” [1], which describes a pilotprogram, the General Engineering Learning Community (GELC), started in Fall 2017 to leverageexisting university resources to support successful course and program outcomes for studentsentering general engineering with insufficient calculus preparation. The program was continuedin Fall 2018 and remains in progress. One component of the program is a learning strategiescourse focused on skills relevant to success in the students’ three cohorted STEM courses:introductory engineering, general chemistry, and the first semester of an extended, year
Faculty, Mohave Community College, Kingman, Arizona 2011- 2012 Instructor, Baker College of Muskegon, Muskegon, Michigan 2004-2011 Research/Teaching Assis- tant, Marquette University, Milwaukee, Wisconsin 2002-2004 Tutor, Iowa State University Academic Success Center, Ames, Iowa RECENT PUBLICATIONS • Russell Cox, Fabien Josse, Stephen Heinrich, Isabelle Dufour, Oliver Brand, ”Characteristics of Laterally Vibrating Resonant Microcantilevers in Viscous Liquid Media”, Jour- nal of Applied Physics, 111 (1), 2012, 14 pages, jap.aip.org • Russell Cox, Jinjin Zhang, Luke Beardslee, Fabien Josse, Stephen Heinrich, Oliver Brand, Isabelle Dufour, ”Damping and Mass Sensitivity of Lat- erally Vibrating Resonant
Paper ID #26534Provoked Emotion in Student Stories of Motivation Reveal Gendered Percep-tions of What It Means to be Innovative in EngineeringProf. Barbara A. Karanian, Stanford University Barbara A. Karanian, Ph.D. , Lecturer, formerly visiting Professor, in the School of Engineering, in the Mechanical Engineering Design Group at Stanford University. Barbara’s research focuses on four ar- eas: 1)grounding a blend of theories from social-cognitive psychology, engineering design, and art to show how cognition affects design; 2) changing the way people understand the emotion behind their work with the intent to do
factorsto a successful team [1]. Kahn [2, p708] defined psychological safety as ‘feeling able to showand employ one's self without fear of negative consequences to self‐image, status, or career’ ,and Edmondson [3, p350] defined it as ‘shared belief held by members of a team that theteam is safe for interpersonal risk taking’. In this paper, we explored the advantage ofmeasuring “Psychological Safety” in engineering teams because there is a potential for thismetric to be used by educators as a way to measure student comfort and inclusion on a teamproject.We searched for literature written about psychological safety and teams in STEM education.Although we might miss existing papers, our literature research provided hits thatpsychological safety is
, with graduates reporting that theywere 8.7x more likely to feel attached to their alma matter if they felt that their university hadprepared them well for a career and for life after college [1].The Academic Pathways (APPLE) Study provides additional support for the value of internshipsand other career-related experience as a component of an engineering undergraduate education.That study found that work-related experiences (i.e.: internships, co-ops, etc.) were the topresponse when seniors were asked how they gained their knowledge about the engineeringprofession. The researchers also found a positive correlation between engineering-relatedemployment experiences and students’ self-reported gains in engineering knowledge [2]. Outsidethe realm
reactions. Separate studies byStief [1] and Call, et al, [2] found students struggled with determining the correct supportreactions to include on a free body diagram, which is unlikely to surprise engineering facultywho have taught the course. Work by Litzinger, et al, [3] looked deeper into the actual problemsolving approach of students in statics. They found that the majority of students, all of the weakand most of the strong, identified support reactions based purely on memory and that only a fewstudents would try to reason out the support reactions based on expected physical behaviors.Having made these same observations, the authors endeavored to create a lesson module thatwould support student’s development of an intuitive feel for 3D
design a curriculum and guides them through the process of developing a course in their field. • ENE 685 Engineering Education Methods (3 credit hours), provides students with a variety of techniques for teaching courses that are both engaging and effective. • ENE 687 Mentored Teaching in Engineering (1 credit hour), enables students to deepen their understanding of teaching and learning through feedback and reflection as they perform their regularly assigned teaching duties. • ENE 695 Succeeding as an Engineering Professor (3 credit hours), covers other skills valuable to faculty members such as writing proposals, selecting and mentoring graduate students, and managing projects.All four courses
; and affective skills related to controlling your emotionalresponse to stressful or difficult situations [1]. As the decay of a skill depends greatly on thedegree to which the skill was learned, the higher the acquisition environment (e.g., immersivetraining), the longer the retention [2]. This approach can increase the skilled workforce whiledecreasing training costs and safety concerns. As the technologies in industry are rapidlychanging, providing suitable training programs are of utmost importance. Computer-basedlearning and other traditional training programs are not adequate in training for various situationsthat decision makers must deal with [3]. On-the-job training is not practical with high cost andsafety concerns in many on-site
author‘s of online homework can improve the integrationof the assignments through scaffolding. Factors such as a student’s chosen major, standardizedexam score, and performance on homework are considered in order to understand the significanceof variation in performance caused by the mode of homework presentation.The question of using online homework has been studied by numerous groups acrossmany subjects. Studies covering mathematics 1 , physics 2 , programming 3 , mechanics 4 , andthermodynamics 5 have largely concluded that student performance is not significantly affected.Other studies have concluded that the potential benefits are outweighed by challenges such ascost to the student and technical flaws 6 . This result speaks to the need for
graduate school, be it degree deliverables or requirements topublish, and engineering students are entering graduate school underprepared for these writingtasks. Beyond the writing demands of the graduate program, it has been shown that writing skillsare critical in both industrial and academic careers [1, 2]. But engineering graduate students rarelytalk to their advisor about the writing process and many have not taken a writing intensive coursewithin the last two years [3]. Students procrastinate on writing assignments, either because of anunfamiliarity with the writing process or by sheer aversion to writing, and this procrastinationbecomes a major source of anxiety [4, 5]. Writing is a critical skill for engineering graduatestudents and
+ students and its notablywelcoming attitude toward them. From examining student-run practices across technical theater,acting, directing, and organizational management, I find that the practices of identity negotiation,performance, and flexible democratic decision-making, situated in an alternative technical-socialspace, are sociotechnical practices with a queer inflection important to the site. These can helpengineering educators in three ways: 1) by simply providing a description of some meaningfulsociotechnical experiences of queer students; 2) by beginning to bridge the “diversity-oriented”and “technically oriented” streams in engineering education research through considering howqueer STEM students are innovative technologists in their own
of 25 and interpretedthe research topics based on the visualization of the LDA results.In conclusion, our experiment with the LDA approach helped us quickly develop an understanding offaculty research interests, would provide good evidence from which to make decisions on collectionmanagement, reference and library instruction, and show the possibility of academic libraries to make useof data and data science techniques in the era of big data.IntroductionLiaison librarians face the challenge of learning faculty research and teaching needs in a timely manner.Wood and Griffin gave an overview of the current approaches including website analysis, interview,course syllabus analysis and large-scale surveys [1]. Department websites, especially
to many engineering education discussions, talks, andpublications, e.g., [1-6]. With both individual and meta-studies exhibiting benefits of activelearning for many learners, the interest appears warranted. Despite the evidence, active learninghas not been universally adopted in engineering courses with full-class lectures and statictextbooks still common. If a professor doing disciplinary engineering research does not adapt tonew research in their field, they are left behind. However, if the same professor adopts the samelecture and textbook for decades, little incentive to modernize the classroom is offered at many,research-focused universities. Here, the focus will be innovation at the cross section of activelearning and