methods were needed in both thecomputer and hand calculations of the building loads.The purpose to running the classes without textbooks was to familiarize the students with themultiple real-world references that would be needed in their engineering careers. The lack of anassigned textbook was not seen to be a hinder on the student ability to use the referencesprovided. At the end of each semester the University administers evaluations, and one of thequestions on this evaluation is: “The course materials used, such as visuals, texts, handouts andon-line items, helped me learn.” The students respond on a scale of 5 to 1 with 5 being“Significantly Agree” and 1 being “Significantly Disagree.” In all of these semesters, theaverage for this question
students are grasping a basic physical understanding of the fluid mechanics, whetherthey have an appreciation for the mathematical techniques being applied within the software,or have an understanding of the limitations of the software. In an effort to assure ourselvesthat these three areas were being properly treated, a pilot master’s level fluid mechanics coursewas taught within the Mechanical Engineering Department at New Mexico State Universitytreating the subject from both the classical mathematical and the numerical perspective. Thematerial for this course was obtained by combining the material from a traditional Master’slevel theoretical fluid mechanics course, taught for several years within the department, and acomputational fluids
visionary technologies.Science fiction short stories provide a way to merge disciplinary content with the mainstays ofethics education such as stakeholder identification and analysis using differing frameworks.Science fiction has been used in non-technical courses to try to stimulate interest or appreciationfor engineering [11, 12]. These courses often focus on the technology rather than the use oftechnology. However, in recent years, professors have begun to experiment with science fictionshort stories as vehicles for teaching disciplinary ethics (e.g. [13, 14, 15, 16, 17]). The followingsections give a practical, hands-on guide for how an instructor might use a science fiction shortstory to incorporate ethics into a content-driven
, mainlyminority, computer science and engineering students, we have recently embarked on anambitious and comprehensive transformation of a major sector of our Computer Science andEngineering curriculum, the first stage of which is transforming the means by which major goalsand objectives of three key courses, Data and Information Structures (COSC-3345), DigitalImage Processing (COSC-4333), and Computer Graphics (COSC-4330) are achieved. The goalis to integrate in a rather “fun and games” way basic concepts from mathematics, statistics,signal and image processing, and computer graphics into a real-life game project. The threecourses are meshed synergistically through a well thought-out 2-D/3-D gaming project, which isintroduced in the junior level course
Paper ID #44490A Case Study on Using a Mini Project in Structural Material Testing to AddressABET Student OutcomesDr. Lekshmi Sasidharan, University of Arkansas Dr Lekshmi Sasidharan is a teaching assistant professor in the Civil Engineering department at University of Arkansas. Dr Sasidharan is very much interested in working on ideas to improve the student retention and student success.Tariq Sweidan, University of ArkansasMs. Abigail Mayhan, University of ArkansasPratik Ghimire, University of ArkansasSuman Kumar Mitra, University of Arkansas ©American Society for Engineering Education, 2024 A case
knowledge. Building sciences are rapidly growing, and integrating knowledge and skill is strongly recommended and required in the Architectural, Engineering, and Construction (AEC) industry. The future of efficient and intelligent buildings depends on the The proposed project shall meet LEED for Schools requirements at the Silver performance level and be integrated knowledge of the future AEC workforce and experts. designed with sustainable and energy-efficient elements to the greatest extent feasible within the budget. The The best way
and remote students required exploration ofsecure, easy-to-use network schemes that meet the requirements of a university network securitypolicies. We discussed the challenges faced in our efforts. We present a case study where thedescribed hands-on exercises are used in a joint listed senior/graduate level course at a publicresearch university in the US. The case study course is cross listed for both Computer Science (CS)and Electrical Engineering (EE) majors. We present the results of an informal user experiencesurvey for the students who performed our hands-on exercises. I. Introduction:Critical infrastructure organizations have been experiencing a technological transition for theirdevices from Industrial Control Systems (ICS) to CPS [1
, present andreceive feedback on their ideas, conduct experiments, build hands-on models, and createinstructional materials to explain nanotechnology and related science concepts. Duringprofessional development, interns learn about creating classroom activities, techniques forpresenting to non-technical audiences, and strategies for assessing their materials; and work ontheir skills in teamwork, project design, leadership, and science communication. In addition tovisiting middle-school classrooms, interns participate in on- and off-campus informal scienceeducation events where they present to wider audiences ranging from science teachers, tomembers of the adult lay public, to groups of middle-school-age children. In this paper, wediscuss the
hourswhile increasing the design aspects of the program and adding “cutting edge” knowledge to thecurriculum. We have done this, in part, by selectively combining courses (such as Statics andDynamics) into a single course.The focus of the current paper is to describe the method in which we combine our Mechanics ofMaterials Laboratory and Materials Science courses into one course with fewer credit hours andteach to multiple engineering disciplines simultaneously.While this combination is ideal for a small to medium sized program with relatively small classsizes, there are aspects that would be of use to larger institutions as well. Anecdotally, thestudents from the different majors enjoy the opportunity to work with students outside theirdiscipline
laboratories are gaining a solid foothold in science classrooms.Inquiry-based learning7, experiential learning8, project based learning9 and various workshopmodels10 have all been widely used for teaching physics, chemistry, biology and other sciences.These approaches have been slower to reach into engineering. We are trying to help to extendthese approaches into the engineering laboratory. Felder and others have noted that learningindividual learning styles need to be recognized when developing educational materials11,12,13.The “hands-on” active learning exercises being developed by the authors should be beneficial tostudents with concrete learning styles. Many, if not most, engineering students fall within thiscategory.The rest of this paper
study of real-world phenomena through hands-on, laboratory activities to develop a deepunderstanding of the material world. (8) Focusing on core science ideas, crosscutting concepts,and practices—teachers’ lessons integrate the core science or engineering ideas, SEPs, andconcepts within and across disciplines, which is consistent with the interdisciplinary nature ofscience represented through the concept of “crosscutting ideas” in the NGSS [2] and Framework[3]. (9) Building classroom community—teachers nurture a collaborative learning community inwhich students feel encouraged to voice their ideas and seek clarifications. Table 1: Ten science teaching practices ([9], pp. 7-8). Reform-oriented science teaching practice
, students gained confidence in relating abstract drawings to physicalmaterials. Students also gained hands-on experience relating basic engineering concepts aboutdensity, materials, statics and dynamics. Students expressed increased confidence in using basictools and relating those tools to engineering science principles. Many students who had noprevious experience with basic tools and shop techniques went on to apply and work asundergraduate teaching assistants in the shop after completing this assignment.BackgroundThe engineering programing at James Madison University was established in 2008.1 Newprograms have many challenges, some of which include unknown characteristics of students anda lack of established norms for both students and faculty
are robust enough to promote rather than hinder communication, collaboration andinnovation.In the Sciences and Engineering, research projects are usually funded by external fundingagencies, such as the National Science Foundation, other governmental or military agencies, aswell as by private corporations.24, 25 Because faculty rely on continued funding for research, theyhave vested interests in not only optimizing the performance of their graduate research assistants,but also in communicating the concrete outcomes of the research conducted. Clearly, facultywho work closely with ESL research assistants as supervisors would like their students/employees to perform as productively as possible for the duration of their courses of study.Yet, many
. Page 26.1587.1 c American Society for Engineering Education, 2015 Torsion Mobile App for Engineering Education Using a High Performance Computer (HPC) ClusterAbstractEngineering students are rapidly expecting learning tools to be delivered on their tablets andsmart phones, including simulation tools for basic courses such as solid mechanics. To addressthis issue, a basic torsional stress simulation tool for mobile devices was developed andimplemented into a traditional first year solid mechanics class (Mechanics of Materials). The app,Torsion HPC, allows students to determine shear stresses for a variety of common torsional barcross sections. The app was used in class for discussion
)AbstractStudies have shown that science experience outside of school plays a significant role ininfluencing students’ interest in studying science in the future. Similarly, engineeringoutreach has been shown to be an effective way to positively affect students’ interest inthe study of engineering. Additionally, it has been reported that students in middleschools are allowed to make limited choices in their course selection. Thus, the middle-school years appear to be a crucial time in which to engage, expose, and broaden theirengineering experience. Therefore, each year for the past nine years, the EngineeringDivision of the college has hosted National Engineers Week activities for middle schoolstudents. During their one and one-half hour visit, the
Putting the “Engineering” into Tissue Engineering: Development of Undergraduate Tissue Engineering Course Materials and Laboratory Experiments Marian G. McCord, Elizabeth G. Loboa, Peter L. Mente, Susan M. Blanchard UNC Chapel Hill / NC State Joint Department of Biomedical EngineeringTissue engineering is inherently multidisciplinary, requiring an understanding both of cell and molecularbiology and basic materials science and engineering. According to the report of the InternationalTechnology Research Institute (WTEC Division) on Tissue Engineering Research(http://wtec.org/loyola/te/final/te_final.pdf), while there are a number of strong interdisciplinary
question “Rate how much you agree with the following statements:” (n = 17).We also explored student motivations for undergraduate research, to help inform how ourworkshops could link with student goals in their research and support the development of intrinsicmotivation. We used the list of student motivations previously developed for the URSSA in oursurvey and asked students to rank their top three motivations. The motivation most frequentlyranked first was “Gain hands-on experience in research.” Other top motivations were “Explore myinterest in science/engineering” and “Clarify which field I wanted to study.” These motivationsindicate students will value support in their professional development and the ability to
hands-on (really getting something, not just memorizing). Plus noted that this lab forces [their emphasis] them to learn better communication and cooperation, We have to learn how to divide up tasks fairly, and to communicate our calculations clearly.” • Group 6—ditto the above, plus one member noted “I went into Engineering to have these hands-on experiences, to be more engaged, and this is definitely more engaging. It’s more like how we learn. I’m going to retain this way better.” • A student questioned in line waiting for next set of materials offered “this is so helpful for me to actually SEE how the values change during the calibration. You can read calculated values, but it’s a lot
Engineering(MS&E). These concepts need to be introduced to students throughout existing MS&E curricula.There is currently a lack of datasets and tools that are appropriate for introducing the complextopics of AI and ML to engineering students with little to no knowledge of computer science orprogramming. In this paper, we report on the background, development, and application of a new3D printed plastic dataset and related active learning exercise. This exercise was performed on arelatively new “no-code” software platform (developed by Citrine Informatics) that uses AI andML to solve real-world materials engineering problems. Our approach places an emphasis on theimportance of materials engineering domain knowledge and structured material data
AC 2008-1611: ACTIVE LEARNING ACROSS THE COMPUTER SCIENCECURRICULUMWilliam Birmingham, Grove City CollegeVincent DiStasi, Grove City College Page 13.144.1© American Society for Engineering Education, 2008 Active Learning Across the CS Curriculum1. IntroductionThe general idea of active learning is to engage students during lecture with a variety of thingsthat actively involve them in the material being presented. Through active engagement, studentsare highly encouraged to focus attention on the lecture. While active learning holds greatpromise, it also raises several important issues: designing materials for lecture that incorporateactive learning while keeping
analysis showed that the case study method of instruction was the best candidate for meetingthe goals (Mbarika, Raju and Sankar, 2003). During 1998-2001, we worked on an interdisciplinary project that produced multimediacase studies designed to improve engineering education. These case studies were developed inpartnership with industries and brought a real-world decision making environment into theclassroom. We later expanded the case studies and developed new instructional materials thatadded links to show the connection between science, technology, engineering, and mathematics(STEM) education and the real-world issues. We tested their effectiveness and adaptability withfreshman engineering students, current high school STEM students, and
for the statics and dynamics courses.We welcomed the opportunity to extend our investigation of problem solving to students in thesecourses, almost all of that had previously taken introductory physics. As a first step in working with the engineering faculty, we observed students in sectionsof the statics course as they worked together in small groups on “hands-on” activities based onthe course material. It soon became apparent that the students were struggling with concepts andprinciples (e.g., center-of-mass and torque) that had been taught in the introductory physicscourse. From this experience and some preliminary studies that our group had conducted in1994-1995, it was clear that the students were encountering additional
for the statics and dynamics courses.We welcomed the opportunity to extend our investigation of problem solving to students in thesecourses, almost all of that had previously taken introductory physics. As a first step in working with the engineering faculty, we observed students in sectionsof the statics course as they worked together in small groups on “hands-on” activities based onthe course material. It soon became apparent that the students were struggling with concepts andprinciples (e.g., center-of-mass and torque) that had been taught in the introductory physicscourse. From this experience and some preliminary studies that our group had conducted in1994-1995, it was clear that the students were encountering additional
attitudes towardcomputational skills and tools. We expect that the interview results will provide additional insights intothe causal mechanisms driving the survey results and thereby inform curricular improvements tosupport MSE students’ development and appreciation of computational skills.AcknowledgementsThe authors would like to thank Dr. Alison Polasik for her support on this project. We also wish toacknowledge the NSF for sponsoring this research.References[1] A. K. Polasik and D. Riegner, "Successes and lessons learned in an undergraduate computational lab sequence for materials science and engineering," in Proc. 2017 ASEE Annu. Conf. & Expo., 2017.[2] A. Ritchie, “The Impact of Creating the Next-Generation Materials Genome
developed byLouisiana Tech University. The course consists of discussion sessions, hands on labs,cryptographic problems, film sessions, and a final cyber challenge each of which integrate thehistory, ethical issues, applications, and theory behind cyberspace, security, and cryptography.Developing a cyber curriculum that is truly interdisciplinary in focus – cutting across both thesciences and the liberal arts – demonstrates a national model for implementing similar programsat other institutions. This integrated approach to teaching strives to educate new scholars whounderstand not only the science, technology, engineering, and mathematics but also the political,social, historical, ethical, and legal aspects of this evolving discipline.Results of
engineers and the implications oftechnology in environmental changes, lifestyles of societies, and sometimes, in economy.However, to understand how a society works it is essential to analyze how the modes ofproduction are organized1.Therefore, considering the role that the economy performs in society, we would like to bringto mind one of its aspects, within the STS approach, which is consumerism. Here, the facet ofsociety that we intend to approach is the society of consumption.In a capitalist system, consumption moves the economy, i.e., commerce, industrialproduction, availability of employment or goods, investments, and so on. If, on one hand, itpromotes more employment, enrichment of groups and development of nations, on the otherhand, it can
Paper ID #14874A Virtual Laboratory System with Biometric Authentication and RemoteProctoring Based on Facial RecognitionMr. Zhou Zhang, Stevens Institute of Technology (School of Engineering and Science) Ph.D Candidate, Mechanical Engineering Department, Stevens Institute of Technology, Hoboken, NJ, 07030. Email: zzhang11@stevens.eduMr. Mingshao Zhang, Stevens Institute of Technology (School of Engineering and Science) Mingshao Zhang is currently a Ph.D. student in Mechanical Engineering Department, Stevens Institute of Technology. Before joining Stevens, he received bachelor’s degrees from University of Science and Tech
Polymer Science and Engineering, a senior-levelspecial topic course in chemical engineering, will conduct a class project printing models usingdifferent polymers to gain hands-on experience in 3D printing. This leading-edge technologywill enable our minority engineering students to learn in the same environment as industrycounterparts, increasing the value of the student experience and interest. In addition, our studentscan use this platform to design novel materials with the best properties and facilitate the path forfinding solutions to industrial problems.Keywords: 3D Printing, Complex problem solving, PLA, ABS. 1Introduction: The world
ability has allowed more complexmodels to be considered and science to be advanced. The key to the overwhelming success ofthe course is directly related to the strong emphasis placed on the student projects and to theadaptation of the topical material. We feel this course has helped bridge a gap between thecapability of high-performance computing facilities and the ability of researchers to utilizethe resources.References[1] R. Buyya, editor. High Performance Cluster Computing: Architectures and Systems, volume 1. Prentice Hall, 1999.[2] D. Grigoras. Programming models for cluster computing. Lecture Notes in Computer Science, 2326:26–35, 2002.Biography GREG WALKER is an Assistant Professor in Mechanical Engineering at Vanderbilt
Assistant to the Vice Provosts. Prior to joining Duke, she was an associate professor with tenure at the University of Florida in the Department of Computer & Information Science & Engineering. She also served as an associate professor and in- terim co-chair in the School of Computing at Clemson University. Her research focuses on the design, implementation, and evaluation of technologies, programs, and curricula to support diversity, equity, and inclusion in STEM fields. Currently, through this work, she is the Backbone Director for the Alliance for Identity-Inclusive Computing Education as well as Education and Workforce Director for the Athena AI Institute. Having garnered over $40M in funding from public and