course. Computers and Chemical Engineering, 30(10- 12): 1749-1762.6. Silverstein, D.L. (2005). An Experiential and Inductively Structured Process Control Course in Chemical Engineering. Proceedings of the 2005 ASEE Annual Conference and Exposition.7. Silverstein, D.L. and G. Osei-Prempeh (2010). Making a Chemical Process Control Course an Inductive and Deductive Learning Experience. Chemical Engineering Education, 44(2): 119-126.8. Doyle III, F.J., E.P. Gatzke, R.S. Parker (1998). Practical Case Studies for Undergraduate Process Dynamics and Control Using Process Control Modules. Computer Applications in Engineering Education, 6(3): 181-191.9. Henson, M.A. and Y. Zhang (2000). Integration of
lecture time was kept to aminimum, and interspersed with the case study and active learning exercises.2) Inquiry-oriented case studies:The healthcare case study was used to provide a real-world example of how the systemsengineering principles, methodology and tools could be applied. Additional detail and examplesof the case study, as well as an assessment of the case study’s effectiveness are provided in theCase Study section.3) Active or performance-based active learning exercises:The instructor integrated active learning exercises into each classroom session within theprepared lecture materials. The students worked together in teams on the exercises, that enabledthe use and practice of the systems engineering principles and tools. Examples of
-long learning principles and 3)incorporate an objective measure of student performance into the program’s curriculumdevelopment process. Currently in their second cycle, the revised instructional methods for thecapstone course also were designed to increase student-instructor interaction and studentengagement, and focus on students’ preferred learning styles. The revised methods have resultedin an increased breadth and complexity of problem-based learning assignments and an apparentimprovement in third-party test results. This paper is believed to offer a new perspective on anintegrated instructional approach and the use of third-party testing as an objective measure in theprogram’s curriculum development processIntroductionBowling Green State
I can succeed in an engineering curriculum.0.814 0.188 18 I will succeed (earn an A or B) in my math courses.0.826 0.170 0.133 19 I will succeed (earn an A or B) in my physics courses.0.702 0.150 20 I will succeed (earn an A or B) in my chemistry courses.0.765 0.291 0.204 21 I will succeed (earn an A or B) in my engineering courses.Group 2: Satisfaction with Engineering, Sense of Fit At the present time, I am satisfied with my decision to0.343 0.567 0.231 14 study engineering. At the present time, I feel confident that I will keep
educating them in the skills, competences, and toolsnecessary to cope with them, are necessary in the education of every engineer. This paperhighlights the integration of ethics into an existing, traditional industrial engineeringundergraduate course at the senior level. In particular, we show how traditional optimizationassignments can be reformulated to blend mathematics and ethics. Therefore, we do not followthe path of developing an independent, elective course that focuses on ethical issues.Furthermore, integration of ethics is not performed through case studies on which students canreflect on their own experiences. Instead, we embed ethical issues in traditional industrialengineering knowledge. In this way, ethical conflicts reveal themselves
variety of field testing, system health assessment, and the process of sound engineeringjudgment (sense-making), which are all required in practice. This project aims to address theeducational gaps in geotechnical engineering education through the development andimplementation of a transferable and scalable Mixed Reality and Mobile (MR&M) EducationalGame, “GeoExplorer,” that will be integrated with traditional geotechnical engineeringeducation. This MR&M game builds on the positive experience gained from two existingeducational games, Levee Patroller and CPT Operator, developed by Deltares, an independentapplied research institute in The Netherlands.Use of Educational Games to Create Advanced Learning MaterialsGames and Learning to Solve
educational resources survey. Florida Virtual Campus. [cited 2017 March 15] Available from http://www.openaccesstextbooks.org/%5Cpdf%5C2012_Faculty-Admin_OER_Survey_Report.pdf.29. Allen IE, Seaman J. 2014. Opening the curriculum: Open educational resources in US higher education, 2014. Babson Survey Research Group. [cited 2017 March 15] Available from http://www.onlinelearningsurvey.com/reports/openingthecurriculum2014.pdf.30. Kursun E, Cagiltay K, Can G. 2014. An investigation of faculty perspectives on barriers, incentives, and benefits of the OER movement in Turkey. The International Review of Research in Open and Distributed Learning. 15(6):15-32.31. Hilton J. 2016. Open educational resources and college
Paper ID #19233Using Technology to Reinvent a Learning EnvironmentMs. Sheree Buikema, Purdue University Sheree Buikema is an Instructional Designer working in Course Design and Development (CDD) at Pur- due University. Prior to joining the CDD team, she piloted new technologies, including eText and LON- CAPA, as part of the Innovations in Teaching and Learning team. In addition to earning several teaching certifications, Sheree holds a Master of Education degree in Educational Psychology, with an emphasis on Curriculum, Technology, and Education Reform. As an instructor, she has led her students to win state and
- ing design thinking on the secondary level. Nathan was a former middle and high school technology educator in Montana prior to pursuing a doctoral degree. He was a National Center for Engineering and Technology Education (NCETE) Fellow at Utah State University while pursuing a Ph.D. in Curriculum and Instruction. After graduation he completed a one year appointment with the Center as a postdoctoral researcher.Dr. Hugh Jack P.E., Western Carolina University Not an author. c American Society for Engineering Education, 2017 Taking Soft Robotics from the Laboratory to the ClassroomAbstractSoft robots are an emerging technology which causes us to rethink the design and fabrication ofrobots
setupmodules of sensors, control and communication units, and integrate the modules into a humandrivable car and model vehicles, and develop on-road control strategies and algorithms for self-driving testing. The lane keeping system is one step of the curriculum development, coveringLevel 1 and Level 2 vehicle automation.In general, lane keeping systems use a video camera to detect road features such as lane markers,and calculate lateral vehicle position, velocity, and lane width in-respect to the lane lines3. Thismethod allows the use of existing infrastructure and is easily adaptable to road changes such asconstruction. However, optical systems are prone to failure in conditions where road features donot exist or are obscured by low sun angles
State University of New York, College at Fredonia, and B.S., M.S., and Ph.D. in Industrial Engineering from Penn State University. She is an ASQ Certified Quality Engineer, an ASQ Certified Manager of Quality/Organizational Excellence, and a Six Sigma Master Black Belt. Susan has been a member of ASEE since graduate school. c American Society for Engineering Education, 2017 Engineering the Accreditation Process The similarities and differences between ABET engineering accreditation criteria(otherwise known as EC-2000) and ISO 9000, the quality assurance standard in industry, havebeen discussed and documented since the initial public review of EC2000.[20] ISO 9000 is
. His research interests include Humanitarian Engineering, social justice in engineering education, global engineering education, professional engineering practice, and curriculum design.Prof. Brent K. Jesiek, Purdue University, West Lafayette (College of Engineering) Dr. Brent K. Jesiek is an Associate Professor in the Schools of Engineering Education and Electrical and Computer Engineering at Purdue University. He also leads the Global Engineering Education Collabora- tory (GEEC) research group, and is the recipient of an NSF CAREER award to study boundary-spanning roles and competencies among early career engineers. He holds a B.S. in Electrical Engineering from Michigan Tech and M.S. and Ph.D. degrees in Science
needs, aging infrastructure, the impacts ofclimate change, and managing emerging technologies for human health, manufacturing andmaintaining environmental integrity, the study of engineering disasters and the nature of risk incomplex systems (and their broader societal and ethical context) will be an educationalnecessity.1For engineering, science and technology students in particular, the study of engineering disastersin their broadest context is critical. On one level, it is obviously necessary to learn from ourmistakes. But just as, if not more importantly, it is the broader context of failure – failureunderstood through the lens of the “open system” – which must be understood, especially in anincreasing complex engineered world. A key need
Paper ID #19574Understanding the Professional Formation of Engineers through the Lens ofDesign Thinking: Unpacking the Wicked Problem of Diversity and InclusionDr. Carla B. Zoltowski, Purdue University, West Lafayette (College of Engineering) Carla B. Zoltowski is an assistant professor of engineering practice in the Schools of Electrical and Com- puter Engineering and (by courtesy) Engineering Education at Purdue University. She holds a B.S.E.E., M.S.E.E., and Ph.D. in Engineering Education, all from Purdue. Prior to this she was Co-Director of the EPICS Program at Purdue where she was responsible for developing curriculum
discussions, FY introductory courses affordthe opportunity to integrate creative assignments. Turning to the interview results, oneinterviewee, who teaches a two-credit FY course required for all engineering students, usescreative assignments to facilitate ethical awareness in his students. The students create anddisplay a narrative about an ethical situation that they might realistically encounter in the next 5-10 years. The teams choose the characters, settings, and scenarios and have creative control overhow the story is shared with the class. From making videos, acting out skits, recording readings,or illustrating graphic novels, students take time to develop stories and reflect on the ethicalunderpinnings with the class. The assignment provides
” aspect of the education process. In addition, considering the complexity nature ofengineering disciplines themselves, teaching such subjects needs an integral approach. In thisholistic view, and for engaging students in engineering topics, other disciplines need to be calledand used to convey the course, namely mathematics and other sciences backed by technologicalrealities and advancements. This is a very similar approach to the science-technology-engineering-1 Thus, is the focus on the pedagogy of learning in this paper through the “learning moment” recording/recallingmathematics STEM curriculum program [1] launched by the U.S. Department of Education since2009 and which is expected to have a positive impact on U.S. economy providing much
leadership in their professional guideline series [3]. In AIChE’s body ofknowledge, it lists necessary psychomotor skills of listening and interpreting, speaking andpresenting, communication, leadership, presentation, and teamwork [4]. In general, everyengineering disciple these professional skills for a successful engineer.Despite the standards set by these societies, usually in an engineering curriculum there is noformal course on professional skills. Typically, during the capstone senior design courseundergraduate engineering students are exposed to some of these skills such as presentation andteam work. Occasionally the center of career development at an institution will offer sessions onprofessional skills usually focusing on interviews and
Paper ID #18910Culture and Attitude: A scholarship, mentoring and professional develop-ment program to increase the number of women graduating with engineeringdegrees.Ms. Paula Holmes Jensen, South Dakota School of Mines and Technology Paula Jensen is an Industrial Engineering Lecturer and the Mentor/Director of Culture and Attitude at South Dakota School of Mines and Technology. She also is a small business owner and was in Manufac- turing and Logistics for 9 years.Dr. Michael West, South Dakota School of Mines and Technology Dr. Michael West is an associate professor and head of the department of materials and
College Engineering (WECE) study. Cathy received her S.B. in cognitive science from the Massachusetts Institute of Technology and her Ph.D. in educational psychology from Stanford University.Dr. Christine M. Cunningham, Museum of Science Dr. Christine Cunningham is an educational researcher who works to make engineering and science more relevant, accessible, and understandable, especially for underserved and underrepresented populations. A vice president at the Museum of Science, Boston since 2003, she founded and directs Engineering is ElementaryTM , a groundbreaking project that integrates engineering concepts into elementary curriculum and teacher professional development. As of September 2016, EiE has served 12.6
Paper ID #19848Using Student Developed Comics to Promote Learning of Transport Phenom-ena ConceptsProf. Jennifer Pascal, University of Connecticut Jennifer Pascal is an Assistant Professor in Residence at the University of Connecticut. She earned her PhD from Tennessee Technological University in 2011 and was then an NIH Academic Science Education and Research Training (ASERT) Postdoctoral Fellow at the University of New Mexico. Her research interests include the integration of fine arts and engineering and developing effective methods to teach transport phenomena.Prof. Tiffany Lauren Pascal, New Mexico State University
technology programs. The model has three parts: (1) universityarticulation, (2) high school student outreach, and (3) high school curriculum and teachingenhancement.Summer Bridge in STEM Subjects for High School StudentsA summer Manufacturing Engineering Academy was held with three, three-week sessions of tenparticipants each. In that academy, high school rising juniors and seniors were trained inSolidWorks 3D modeling software and guided through the design of their own scaled-downindustrial robots. Upon completion of their design, the students printed their designs using 3Dprinters and fabricated their robots into working prototypes. They then integrated their robotswith an Arduino PC board and programmed their robots to do pick and place
and behavior of con- crete structures; and he is actively involved within the professional engineering community. Furthermore, Dr. Tuchscherer has also supervised sponsored research and educational reform initiatives related to the improvement of student learning.Dr. Ron Gray, Northern Arizona University Ron Gray, Ph.D. is an assistant professor of science education in the Center for Science Teaching and Learning at Northern Arizona University. He graduated from Oregon State University with a doctorate in science education. His work largely focuses on providing secondary science teachers the tools to design and implement learning experiences for their students that are effective and authentic to the discipline
(i.e., inphase samples and quadraturesamples), the ADALM-PLUTO SDR platform by Analog Devices was used in this course due toits capabilities and compact form factor.IntroductionIn 2010, several of the authors of this paper presented an educational paradigm for teachingdigital communications via a hands-on approach using software defined radio (SDR)technology 1. At the time, SDR technology was only beginning to mature, the number of optionswere limited, access to the various features of the SDR platform was limited, and the cost of thehardware was relatively high (˜$2000USD). Based on this proposed paradigm, the authorspublished an undergraduate textbook that presented a curriculum for teaching hands-on digitalcommunications education using SDR
highschool students have about engineering. [Students graduate from high school in late May andenter college in early August].The author of this manuscript taught an FYOS course section “Engineering Is Part of a LiberalEducation” where the learning objectives were to help students understand that developingsolutions to complex problems require the integrative nature of engineering. In this coursesection, lectures focused on a case study that will be called herein as the Farming Subdivision.The following outlines the case study. Urban sprawl from the Atlanta-metro area is a concern of Jackson County Georgia. In 2002, agricultural census data indicated that the county has approximately 42,000 acres in field crops and this dropped to just over
resolution. Once an error was integrated into thesystem, it is tedious to find and correct. This is amplified because Patran doesn’t allow for thereversal of more than one step. It would be preferred if a step-by-step manual was developed togive the best way to approach the bridge model.”“The most difficult part of the class project was the entire model. Due to its complexity and sizethere were a large number of nodes. Trying to determine the exact nodes to RBE2 to one anotherwas very difficult.” 3) Comment on the quality of the laboratory manual and class instruction, and make suggestions for improvement.“The lab manual needs to be in color, with revisions in grammar of the content and updatedphotos for instructional purposes. ““My
2016, he has joined the Department of Electrical and Computer Engi- neering at University of California, Davis as a Lecturer with Potential Security of Employment (Teaching Professor). His teaching interests include circuit theory as well as analog, digital and RF electronic circuits and systems. His educational research interests include applying technology to design modern circuits courses and laboratories.Mr. Jun Ouyang, University of California, Davis Jun Ouyang received two bachelor degrees in Electrical Engineering and Computer Science from Univer- sity of California, Davis, CA, United States. He worked as an IT professional prior to his college years. He is currently a Master’s student at University of
the common exam questions to evaluateimprovement in student understanding.Methodologyi. Original course designThis course is offered in a 10-week, quarter-based institute. In the original outline of the course,the first eight weeks were primarily focused on working with microcontrollers and developingembedded systems using the C programming language. In the last two weeks, we introduced theinstruction set architecture and discussed microcontroller organization and assemblyprogramming. Since the majority of students had no experience with C prior to this course, thefirst two weeks were primarily dedicated to a quick ramp-up in C programming. Hands-on laband project work is an integral part of the course. There are weekly lab projects, except
the contrary, Charette (2013) suggested that there are more STEM workers than suitable jobsand many STEM graduates work for non-STEM related jobs. Whether one thinks there is a STEMshortage or surplus, an important factor that hinders any STEM graduate from securing a STEMjob is their inadequate level of academic preparation for college. This preparation begins in gradesK-12.STEM integration in K-12 has been on the rise since the idea was introduced almost a decade ago(Nathan & Pearson, 2014). Zuger (2015) noted the most commonly reported challenges that theK-12 schools are facing to implement STEM programs are funding (48.4%), inadequate K-8education (46.5%), insufficient teacher PD (46.4%), unclear best practices for STEM education(35.3
education policy, and academic motivation.Miss Raeven Carmelita WatersMs. Ashley R Taylor, Virginia Polytechnic Institute and State University Ashley Taylor is a doctoral student in engineering education at Virginia Polytechnic and State University, where she also serves as a program assistant for the Center for Enhancement of Engineering Diversity and an advisor for international senior design projects in the Department of Mechanical Engineering. Ashley received her MS in Mechanical Engineering, MPH in Public Health Education, and BS in Mechanical Engineering from Virginia Tech. Her research interests include broadening participation in engineering, the integration of engineering education and international development, and
facilitating that difficult transition byengaging in discussion and creating pedagogical resources. This project was one of many funded. The assessment and evaluation of the projects aredriven by dedicated university faculty that work as part of the Quality Enhancement Plan (QEP).The primary output is integrating developed assignments and projects as regular part of courses.These projects are based on the High Impact Practices (HIPs) identified by the Association ofAmerican Colleges and Universities (AAC&U). These activities are then embedded into thewriting-intensive courses; collaborative assignments and projects serve as a vehicle ofcommunication for an undergraduate research project; reports are developed related to theundergraduate