number thirteen discusses a highly ambitious and massiveproject that would integrate most of the major rivers in the nation. The present population isroughly one billion, and is expected to rise to between 1.5 to 1.8 billion by 2050. Due to the highvariability of rainfall patterns, some parts of the country receive large amounts of rain, whileothers have desert-like conditions. Therefore, the interlinking of rivers is of great importance forfuture development. The estimated cost of this largest project in the world is $112 billion.Interlinking of the rivers will augment irrigation, provide a solution to the growing need forindustrial and domestic water, generate electricity, and improve inland navigation. The projectshould protect the country
-solving strategies from studentsin mathematics classes, but have now been expanded to other disciplines including ethics andengineering science2,3.Through a collaborative, large-scale National Science Foundation project, MEAs are now beingdeveloped to elicit student misconceptions about important but poorly understood concepts inthermal science. For example, misconceptions about the second law of thermodynamics and itseffect on energy quality are being explored in an MEA where students estimate the overallthermal efficiency of electric vs. hybrid vs. gasoline cars. Student teams must use a systemsapproach and include all relevant energy conversion steps in their problem solving process.In this paper, we will describe MEAs and how they are being
learning. Original PLTL workshops have six essential components26: (1) ThePLTL workshop is integral to the course; (2) faculty and peer leaders work together to prepareworkshops and train peer leaders; (3) peer leaders are well trained; (4) workshop materials arechallenging and at an appropriate level; (5) organizational arrangements promote learning; and(6) the department administration encourages innovative teaching. In the standard setting, a peerleader works with six to eight students during weekly workshop sessions. The peer leader meetswith the same students each week.Our approach to PLTL is modeled after a successful HP-funded project in the UTEP Departmentof Electrical and Computer Engineering (ECE) that targeted a gatekeeper course in the
2Engineering in Practice 2Total 14An outline of the Introduction to Engineering course that was replaced is given in Table 6. Thiscourse focused much more on engineering design topics. The text used was Eide et al8. Becausethe engineering students in this course were taking General Physics at the same time, theintroduction to engineering course emphasized hands-on activity and design. Prerequisiteknowledge of mechanics electricity and magnetism was obtained in General Physics. Anunfortunate result of the change in Introduction to Engineering is the reduction in design contentof the introduction to engineering class.Table 6: Outline of Topics in Introduction to Engineering Prior to
research on the performance of students in courses using OER and more specifically inarchitecture and engineering education. The objective of this research is to assess the impact of anOER platform for teaching building information modeling (BIM) course, taught to architecture,engineering and construction (AEC) students at the University of Texas at Arlington. This studyexamined the performance of AEC students in a BIM course before and after adopting the OERplatform developed and also a combined OER and flipped classroom strategy. Hypothesis testswere performed to compare the averages of students’ project and overall grades in three semestersthat the BIM course was offered without the OER, with the OER, and with combined OER withflipped classroom
Vernier Dynamics Cart and Track System; thisparticular project was chosen to enhance the students’ skills in trigonometry and physicsmechanics. In this experiment students collected the data in the form of space and time, and wereasked to find the speed and acceleration.If this teaching methodology will prove beneficial for the MET students, as shown by studentquestionnaires and tracking their results in the courses such as Dynamics, the authors willintroduce more experiments, such as a Wind Turbine Experiment and other basic laboratoryexperiments.IntroductionThe Engineering Technology (ET) Department is the largest in terms of student count of the sixacademic departments in the College of Engineering at the University of Toledo. TheDepartment
projects. The completed projects were printed in the Universitylab by 3D printers and mailed to the participants before the last day of the Academy. Fig. 1: 3D design of the mask holder.Day 2: Circuits & Conductivity (Related disciplines: Engineering, Technology, and Applied Science)Participants were introduced to basic electrical engineering concepts, including conductivity and electriccircuits and components. Participants used common electronic components such as a light emitting diode(LED) in series with a resistor and a battery pack. To illustrate the concept of conductivity and connect thecomponents above, a Play-Doh© (conductive material), as shown in figure 2, and a plastic lid (an insulator)were
Marietta, GA 30060 Introduction Implementation of safety and health programs on construction projects requires a well-educated workforce that is knowledgeable in safety requirements and procedures. Suckarieh andDiamantes (1995) indicated that time dedicated to construction safety training is not adequate.He mentioned that formal training could have a significant impact on students’ performance assoon as they graduate. Coble et al. (1998) mentioned that safety education for the BuildingConstruction Management students has not often been a high priority in US universities. J.Christian (1999) observed that teaching a class like safety is sometimes difficult as the studentsregard its regulatory nature as is "boring". The need for
Roller Coaster Tycoon 3 as a Performance Based Learning Tool Under Common Core State Standards for Middle School and High School Research Experiences for Teachers (RET) 2011 Melissa Miller, Randall Reynolds, Ed Pohl Science Teacher Lynch Middle School/Math Teacher Gravette Junior High School/Associate Professor University of ArkansasAbstractThe RET project for 2011 at the University of Arkansas was to continue research in the area ofcomputer simulation video games to provide students and teachers a meaningful method ofPerformance Based Learning (PBL) addressing Common Core State Standards (CCSS) whilemaintaining the previous objective of introducing and recruiting
. Carla B. Zoltowski, Purdue University, West Lafayette Carla B. Zoltowski is an assistant professor of engineering practice in the Schools of Electrical and Com- puter Engineering and (by courtesy) Engineering Education and Director of the Vertically Integrated Projects (VIP) Program at Purdue University. She holds a B.S.E.E., M.S.E.E., and Ph.D. in Engineer- ing Education, all from Purdue. Prior to this she was Co-Director of the EPICS Program at Purdue where she was responsible for developing curriculum and assessment tools and overseeing the research efforts within EPICS. Her research interests include the professional formation of engineers, diversity, inclusion, and equity in engineering, human-centered
applied project-based experiences among lower development, etc. In addition, lectures on entrepreneurshipdivision courses causes many students to lose interest and were integrated during Winter quarter to allow students toleave engineering during the first year, without understanding develop a business plan related to the quadcopter project.the importance of rigorous training in math and physical Lab sessions were designed for students to apply thesciences. Many programs implemented innovative first-year technical contents to their project and were co-instructed bycourses to enhance engineering curriculum and increase graduate teaching assistants and laboratory staff. Studentsstudent retention [1
better demonstration ofengineering concepts [16] particularly when making a physical prototype is not feasible due to alack of time and resources [17]. The improved demonstration using XR allows for tacklingmultidisciplinary projects in engineering design courses, particularly in junior and sophomoreyears when making a physical prototype could be challenging considering time, cost, and safetychallenges. [18]. In our curriculum, ME386W is the 3rd-year junior design course and the lastdesign course before capstone projects. ME386W does not require a physical prototype to bemade, considering the limited departmental resources and limited time of the semester.Therefore, ME386W could potentially benefit significantly from the use of XR technology [19
curriculum in two main ways: as required, stand-alonecourses [26] or embedded entrepreneurial mindset into existing engineering courses. Severalexamples have been successful with the latter, and the KEEN organization can help providefunding to make these changes to the curriculum [25-28]. This methodology is more aligned withresearch by Winberg et al. [12] that calls for the coupling of technical and professional content.It is recommended that engineering program coordinators introduce alternate assessment theoriesinto the engineering curriculum. Examples include a scale based on the Theory of PlannedBehavior [13] to assess student attitudes toward professional skills, including communication,ethical decision-making, cultural adaptability
the ratings assigned by the rest of your team, will be used to calculate grades for each member of your team. Do not rate yourself. Figure 2. Directions for and example of team self-evaluation matrix.Student motivation and attentiveness is enhanced by the opportunity to apply group projectmaterial to a real-world problem. If students can see the utility of a particular technique ortheory, it may help them to assimilate that material more effectively. For example, thetransportation curriculum at the University of Massachusetts incorporates many real-worldgroup projects, ranging from field studies such as traffic counts and signalized intersectionanalysis, to work with local and state agencies. Students get the
, individual engineering activities to full,multiyear curriculum. What is currently recognized is that understanding and working with PreK-12 educators often leads to successfulengineering implementation and student learning.A few of the quality, pre-developed materials include: teachengineering.org, PBSLearningMedia.org, Engineering is Elementary, Seeds ofSTEM, Project Lead the Way, and e4usa (Engineering for Us All). Guidance for implementing high quality engineering can come from theNext Generation Science Standards (NGSS) and the new Framework for P-12 Engineering Learning that is supported by ASEE.The post-secondary (i.e., higher education) community can learn tremendously from PreK-12 Science & Engineering frameworks andresearched-based
teacher education has rarelyaddressed the foundational principles of engineering design, the skills for developing andimplementing engineering design curricula, and the pedagogical skills for supporting highquality engineering education in classrooms (Lehman & Capobianco, 2012; Reimers et al.,2015). Our project attempts to address this gap by studying the efficacy of a three-year effort todevelop and implement professional learning focused on engineering design for K12 teachers.The goal of our project was to increase K12 teachers’ knowledge of engineering design, theirskills for creating and adapting engineering curricula, and their confidence and skills forimplementing engineering curricula in their classrooms. Our study was guided by the
Foundation of China for Innovative Research Page 22.377.9Group (No. 50921002), the project of the construction point of the national special discipline, the project of the national teaching group and the China Education Ministry Key Lab OpenProject (CPEUKF08-08).Reference[1] X-X ZHANG, Y-M Zhao, J-T Liu, et al. Mineral processing education in China. XXV International Mineral Processing Congress, September 6-10, 2010, Brisbane, Australia: 3095-3098.[2] Y-Q He, Y-M Zhao, J-T Liu, et al. Exerting the advantages of national key discipline, outstanding the training of engineering
Statistics (USBLS) in the last 10 years, employment in the STEMfields has grown twice as fast as jobs in non-STEM fields, with jobs in engineering experiencing the mostgrowth (US Dept. of Labor, 2019). While this may seem encouraging in terms of employment prospects,there are not enough students entering engineering programs in college to fill these jobs (National ScienceBoard, 2018). A majority of students lack an interest in engineering, due in part to the lack of trulyintegrated STEM curriculum in K-12 classroom instruction (Samson et al., 2015). Most K-12 students arenot able to experience applications of real-world engineering or learn about the benefits of becoming anengineer. As a result, students do not consider studying engineering in
ofdepartment and university resources. Monitoring and advising are also used to retain students bycommunicating with them before there is a problem as opposed to after the damage is done. Watson et al.16 states that the pipeline metaphor may not be the most effective way toexamine the dilemma of underrepresented minority representation in science and engineering.The Inuguq-threshold model uses an electrical transmission line model to illustrate techniques todiversify the engineering workforce. Watson et al. surmise that current research focuses onchanging the learner and increasing the mass through the pipeline as opposed to changing thepipeline. In order to do this, the engineering education community must recognize the differentlevels of
, humanitarian engineering, engineering ethics, and computer modeling of electric power and renewable energy systems. c American Society for Engineering Education, 2017 Paper ID #19253Dr. Jeong-Hee Kim, Texas Tech University Jeong-Hee Kim is Professor of Curriculum Studies and Teacher Education in the Department of Cur- riculum and Instruction at Texas Tech University. Kim is a curriculum theorist, teacher educator, and narrative inquiry methodologist. Her research centers on various epistemological underpinnings of cur- riculum studies, particularly engaging in hermeneutical excavation of the stories of
,” Frontiers in Education Conference Proceedings, San Diego, CA, October 2006, pp. T2H-24 to T2H-29.5 VanderSteen, J., “Humanitarian engineering in the engineering curriculum,” PhD Dissertation, Queen's University (Canada), 2008.6 Moriarty, G., The engineering project: its nature, ethics, and promise, University Park, PA, USA: Pennsylvania State University Press, 2008.7 Jamison, A., Mejlgaard, N., "The Shadow of Commerce," ASEE Prism, Vol. 19, No. 3, November 2009, pp. 84.8 Sheppard, S., et. al., Educating Engineers: Designing for the Future of the Field. San Francisco, CA: Jossey-Bass, 2009.9 Katsouleas, T, "New Challenges, Same Education?" ASEE Prism, Vol. 18, No. 8, April 2009, pp. 60.10 Accreditation Board
course project. LabVIEW was used extensively in the laboratory sessions to helpstudents understand how virtual instrumentation works. LabVIEW was selected for two reasons:its diverse features for data acquisition, control, and flexibility in displaying data and itspopularity in industry. Through using LabVIEW, students not only learn concepts in virtualinstrumentation, they also acquire the skill of using a software package that many companies use.Wireless technologies are used more and more in our daily lives. Even though wirelesscommunication is covered in another course in the program curriculum, it is crucial that studentsunderstand the importance of wireless communication in instrumentation systems. ZigBee wasselected for use in the
ethics in a disciplinary context and included anextensive discussion with a philosophy professor about ethical frameworks. The learningapproach was through ethical case studies, long used as an approach to teaching ethics (e.g.,Harris et al., 2013)11. Discipline-based teams discussed and critiqued ethical case studies andwrote reflections. The multidisciplinary context was examined through 1) class-wide discussionsand 2) multidisciplinary, small group discussions where students presented their discipline-basedcase to fellow scholars in other STEM disciplines. The second semester (fall 2013) usedmultidisciplinary projects to explore the broad topic of “garbage”. This is a topic important tosociety that STEM students, especially engineers, will
lead of Area of Specializa- tion Mechatronics Systems Design. She worked as a Visiting Researcher at Commonwealth Center for Advanced Manufacturing in Disputanta, VA on projects focusing on digital thread and cyber security of manufacturing systems. She has funded research in broadening participation efforts of underrepresented students in STEM funded by Office of Naval Research, focusing on mechatronic pathways. She is part of the ONR project related to the additive manufacturing training of active military. She is also part of the research team that leads the summer camp to nine graders that focus on broadening participation of underrepresented students into STEM (ODU BLAST).Dr. Denise Tombolato-Terzic
-Organizational Psychology PhD student at Seattle Pacific Univer- sity. During her graduate studies she has been involved in several research projects investigating students, faculty, and graduates of STEM disciplines with the goal of improving engagement and retention in these populations.Mr. Rida Y Al-Hawaj, Seattle Pacific University Rida Al-Hawaj is a master’s student at Seattle Pacific University. He is majored in Industrial-Organizational Psychology. He received his B.S in psychology from Portland State University. He got interested in the topic of ”Educating Engineering Students on Effective Team Skills” because he started his academic jour- ney by majoring in electrical engineering and faced many problems in
Session 3260 North American Engineering Education & Academic Exchange: -- Canada, Mexico, the United States -- Thomas R Phillips, ABET/FlPSE Project Consultant Managing Director, Collegeways Associates (USA)From 1993 to 1996 the author served as ‘External Evaluator’ for the Regional Academic MobilityProgram (RAMP), a multilateral exchange program run by the Institute of International Education(IIE). RAMP has brought together 26 institutions in Canada, Mexico, and the United States, movingover 200 students in its first three years. However, only about 12% of the exchanges
significant international academic or experientialcomponent in the curriculum that exposes students to a culture other than their own. This willhelp prepare them to live and work in an international environment. Union College has long hada strong international component in its curriculum. Part of the College’s General EducationCurriculum is dedicated to providing students with substantial knowledge of another culture.This has been accomplished, in part, by significant study of a foreign language or culture, butprimarily through the term abroad program in which students spend a trimester living andstudying in a foreign country. Prior to 1996, engineering students were exempt from this part ofthe General Education Curriculum and few elected to
. Usprech has worked to incorporate hands on cellular/tissue engineering design into the SBME undergraduate curriculum and teaches courses in professionalism and ethics, and engineering and design.Prof. Karen C. Cheung, University of British Columbia Karen Cheung received her B.S. and PhD. degrees in Bioengineering from the University of California, ´ Berkeley. She did her postdoctoral work in microtechnologies at the Ecole Polytechnique F´ed´erale de Lausanne, Switzerland. She is a Professor in the Department of Electrical & Computer Engineering and the School of Biomedical Engineering at the University of British Columbia.Dr. Agnes Germaine
, Cornell University, and the University of New Mexico.Ms. Amy Dunford, New York University Tandon School of Engineering Amy K. Dunford is the Manager of the Vertically Integrated Projects (VIP) Program at the NYU Tan- don School of Engineering. Amy earned an M.S. in Engineering Education from Purdue University and an M.S. in Mechanical Engineering from the University of California, Irvine. Amy specializes in project-based learning management and curriculum development, and has prior experience as a first-year engineering instructor.Dr. Jack Bringardner, NYU’s Tandon School of Engineering Jack Bringardner is the Assistant Dean for Academic and Curricular Affairs at NYU Tandon School of Engineering. He is also an
. Graduates are now called upon to contributeto a dynamic global economy. They are sharing projects with colleagues around the world, and mustexhibit managerial and entrepreneurial skills with a clearer understanding of other cultures and ethics.Solution We have begun the first implementation phase of a project that will:≠ Explore the most relevant skills to become more innovative≠ Develop multiple hands-on activity-based Innovation Modules, each of which aims at specific skills, and with focused objectives and outcomes≠ Aggregate the modules into the curriculum≠ Implement and assess of the Innovation Modules The proposed environment will focus on enhancing innovation-related skills such as (a) Problem solving, (b) “Big picture