students who are interested inengineering to matriculate in traditional institutions. Most options for these studentsoccur in institutions specifically gears for teaching the Deaf. One program at PurdueUniversity pairs Deaf students with mentors from engineering or science (who are alsoDeaf), so that they can pass vital information on pitfalls and hurdles they themselvesencountered while going through the program [4]. This program also providesmechanisms to help the Deaf students learn concurrent with traditional students. Theywere provided stenographers, speech-to-text translation equipment, and access tointerpreters. Another program that accommodates Deaf engineering students is the NationalTechnical Institute for the Deaf at the
coursesprovide depth in automotive materials from the perspective of “engineering”, instead of“science”.In addition to the coursework, students must elect a capstone project or a thesis, which can be ona topic related to automotive materials and structures. The capstone project is usually design Page 5.321.3oriented and provides an opportunity for student teams (of two) to work on application-orientedinterdisciplinary problems. Examples of projects are material substitution and integration usingvalue analysis approach for modular engine air intake system and material alternatives for rearaxle housing of a heavy truck. The thesis, on the other hand, is
one-on-one consultations. An additional 6 to 12 hours are required to review the digital recordings ofthe student presentations. As such, this Workshop is very time-intensive and represents a majorteaching commitment. The students would like to have more time for their presentations and forquestions from the audience. The students have also suggested that the Coordinator give someexamples of poor communication skills or things to avoid in public speaking. Another frequentsuggestion from the students is to provide a similar workshop that would focus on writtencommunication skills.Bibliography1. Paradis, J.G. and M.L. Zimmerman, The MIT Guide to Science and Engineering Communication, MIT Press, Cambridge, Massachusetts (2002).2. Booth
-materials science and engineering students, the report recommendsthe joint teaching of subjects by faculty with materials and non-materials science expertise, and asequence of two courses with one focusing, for Mechanical Engineering undergraduates, on theelastic and plastic properties of materials.Mechanical forming is chosen as the theme because it addresses the goals outlined by the NRC,and because it provides a platform to integrate concurrent engineering design and manufacturingprocesses. Students will discover, through hands-on investigations, the effects of mechanicalforming on the mechanical properties and microstructure of a metal. They will also discover,again through hands-on investigations, the effect of annealing on the mechanical
manufacturing environments.Dr. Jeff Hung, Farmingdale State College Dr. Jeff Hung holds degrees in engineering and technology disciplines (Ph.D. in Materials Science and Engineering, M.S in Mechanical Engineering, and B.S in Manufacturing Engineering Technology). His areas of expertise are in Computer-Aided Design (CAD), Computer-Aided Manufacturing (CAM), Com- puter Number Control (CNC), new product development, fuel cell technology, and thermal spray tech- nology. He is currently an assistant professor of the Mechanical Engineering Technology Department at Farmingdale State College. c American Society for Engineering Education, 2016 Design and Development of Online Applied Thermo-Fluid
sciences, engineering and information sciencepertinent to micro-nano scale incorporated into undergraduate education is essential forfuture development.VII. Bibliography[1] Peterson,K.E, “Silicon as a mechanical material,” Proc IEEE, Vol 70 (5) 1982 pp 420 - 457,.[2] Bratter, R.L “Commercial success in the MEMS marketplace,” Optical MEMS, 2000 IEEE/LEOS International Conference on , 21-24 Aug. 2000 pp 29 - 30[3] Koester D.A, Markus, K.W, Walters, M.D “MEMS: small machines for the microelectronics age,” Computer, Vol: 29 , Issue: 1, Jan. 1996 ,pp 93 – 94[4] Sadiku, M.;”Potentials,” IEEE , Vol: 21 , Issue: 1 , Feb.-March 2002 ,pp 4 - 5[5] Marc.J.Madou: Fundamentals of Microfabrication, The Science of Miniaturization, CRC Second
coordinator at the Department of Engineering at Texas A&M University-Corpus Christi. Her research interests span applications of imaging modalities (hyperspectral, thermal, color) in engineering and science applications. She has been engaged in effective teaching and learning pedagogies, and is a proponent of engaged student learning through hands-on experiences. Her most recent work involves effective learning pedagogies using PBL in IoT applications. Dr. Mehrubeoglu received her B.S. degree in Electrical Engineering from The University of Texas at Austin. She earned an M.S. degree in Bioengineering and Ph.D. degree in Electrical Engineering from Texas A&M University. After working in industry developing
Paper ID #37263Engineering and Data Science for Environmental Justice(Resource Exchange)Jennifer Taylor Jennifer Taylor is an Assistant Director with the Integrated Teaching and Learning (ITL) Program of the College of Engineering and Applied Science at the University of Colorado (CU) Boulder. She directs the ITL Pre-College Engineering Education Program whose mission aims to broaden participation and build interest in engineering through hands-on learning experiences for K-12 students, especially underrepresented and underserved youth. Jennifer develops engineering education curricula that focus on integrating
Session #3630 Effectiveness of Various Components in a Mechanics of Materials Course David J. Mukai University of Wyoming Civil and Architectural EngineeringIntroductionThe pressures on undergraduate Science, Math, Engineering, and Technology (SME&T)education are well documented (1). Some of these problems include: undergraduateSME&T courses tend to filter out students, leaving only a few highly-qualified graduates;low retention in SME&T courses because students find them boring; and an increasedamount of knowledge that needs to be transmitted. This project modifies materialsdeveloped by Gregory Miller at the
, computational methods for modeling nanoscale materials, nanoscale devices,nanoscale systems, and design principles at nanoscale.A recent evaluation of National Science Foundation (NSF)-funded undergraduate researchexperiences recommends that students in Science, Technology, Engineering, or Mathematics(STEM) disciplines should be engaged in undergraduate research as first- or second-yearstudents. Furthermore this study showed the longer undergraduates participated in research themore likely they were to pursue post-baccalaureate degrees[2]. Studies about the benefits ofindependent faculty-mentored research have also shown that students who undertake researchprojects are more likely to complete their undergraduate education[3,4] and go on to
of the Data Science and Engineering Summer School was to provide students aconnection between nuclear non-proliferation applications and data science. Lectures provided areview of key topics and introduced data science methods via hands-on tutorials. Students wereimmersed in a collaborative environment.The Data Science and Engineering Summer School was originally planned to be in-person.However, pandemic concerns in 2020 forced the school to transition to an on-line format. ThisPNNL-SA-160054transition had both benefits and challenges. One of the primary benefits was that the on-lineformat allowed for more participants resulting in 214 registrants for the course. The largenumber of registrations exceeded expectations and provided a challenge
teaches multimedia courses and develops curricula for both the College of Arts and Sciences and the School of Professional and Continuing Studies. His research focuses on creating new forms of educational and social engagement through games. He is the Lead Game Designer at Metaversal Studios, a game company founded by NU alumni and faculty, which frequently collaborates on Northeastern University projects.Lisa Regalla, Museum of Science Boston LISA REGALLA is an Education Associate in Nanoscale Science and Engineering at the Museum of Science in Boston, MA. She develops and presents programs on a variety of nanoscale topics and acts as the liaison between the Museum and the NSF-sponsored
that additional material can be readily added. Page 8.1280.1"Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education"Figure 1, Instructions on using the web-based virtual lab. Students can select from differentpages on left hand menu bar. Reference material on tabs in upper right open in separate window.http://instruct1.cit.cornell.edu/Courses/virtual_lab/index.html. At the beginning of physical labs at Cornell, the instructor generally gives the students a briefchalk talk introducing the experiment, the equipment, procedures and
merit as related to the work of typical civil engineers. Many structural, transportation,environmental, and geotechnical engineers conduct onsite, laboratory, or computer modelingexperiments on a regular basis. These studies often culminate in technical reports. Civilengineering programs often attempt to prepare students for such activities by requiring allstudents to participate in laboratory exercises and to prepare formal reports of the resulting dataanalysis and interpretation. Although a traditional mechanics of materials laboratory course canmeet this goal, commonly used experiments do not prepare students to conduct a critical part ofthe process described in ABET Criterion 3; designing the experiment. Through the help of abenefactor, the
meaningful relationships with their peersfrom across the country. Students are being offered multiple homework-assigning coursesincluding calculus, computer programming, a choice of biology, chemistry or physics, as well ashands-on project-based courses such as Chemical Engineering which is the subject of the presentpaper.Research has shown that underrepresented minorities respond better to STEM education whenactivities are multi-media and hands-on [6-8]. To achieve the understanding of what anengineering career entails, the Chemical Engineering hands-on project-based course applies anexperiential learning approach to lectures and laboratory experiments to expose the enrolledstudents to data analysis, material property estimation, basic process
the “forces ofproduction” and their role in creating a social order [3]. Marx [19] had a technologicallydriven context for history stating, “the hand mill gives you society with a feudal lord, thesteam mill, society with the industrial capitalist.”The history of technology is interdisciplinary with links to economic history and historyof science. The study interacts with environmental history, gender history, businesshistory, and labor history. Treads of each of these historical fields run through eachtechnological development. History of technology is further divided by eachtechnological field: biotechnology, civil engineering, communication, computing,consumer technology, electricity and electronics, energy, materials science,measurement
learning3,6.In team-based learning, on the other hand, in the Preparation phase, students are told exactlywhat specific content material needs to be learned in order to be successful in the subsequentApplication phase. They take a readiness test and are given a subsequent brief corrective lectureover the important content before beginning the Application phase. Thus, there is much less riskof creating knowledge gaps when using team-based learning, which is the principal reason whyteam-based learning and not problem-based learning, was chosen for our initiative.Online TBL Training Course for Engineering TeachersAn online delivery format is chosen due to two main reasons. First, the prospective trainees arefaculty in a higher-education institution who
purpose of adding these projects was primarily to further enhance careeropportunities for students since current trends in technical job market indicate that many jobsrequire the knowledge of both computer science and engineering.With the aid of faculty with engineering and physics background, two projects with real-worldapplications and hands-on activities were designed. One project from Type I category and theother for Type II. The projects were briefly discussed in the class and the interested studentswere asked to see the project supervisors for further discussions. Five students showed interestand the project were discussed with them in details. After reviewing the student technicalbackground in physics, mathematics, and engineering fields
emphasize theneed for control of source material, materials components and processing techniques to achievedesired products.6,7 The general relationship between properties and processing is valid, but notidentical, for all classes of materials, including both crystalline and amorphous metals, ceramics,glasses, polymers and composites.Education in materials is focused on University-level programs such as Materials Science andEngineering, Materials Engineering, Metallurgical and Ceramic Engineering, Polymer andComposite Engineering, either as a separate department or departments and sometimes part ofanother university department. Also available are Community and Four-year Collegetechnology-related programs, often focused in areas such as corrosion
Session 3226 Investigation of Shear as a Failure Mode in Anisotropic Materials Scott R. Short Northern Illinois UniversityAbstract There is an immediate need in industry for engineers conversant in the fundamental principles ofmaterial behavior. This type of knowledge may best be imparted to the undergraduate student by direct,hands-on laboratory experience. Another way to enrich the undergraduate engineering laboratory experienceis to introduce the student to current research. When
interdisciplinary Data Science program. The paperdescribes how the program was constructed, the participation of the campus units, and theprogram curriculum. An interesting aspect of this program is its reliance on studio-basededucation. Studio based instruction is naturally more student oriented, through hands-on, teambased, and collaborative projects. Instruction is not lecture oriented but rather guided,personalized, and has an element of self-regulation. In the reviewed program, a series of 6 credithour studio courses encompass approximating 90 hours of instruction over the 4-year program.The studios challenge learners to solve comprehensive, real-world challenge problems derivedfrom or motivated by societal issues. The teaching of the studios involves
engineering students. Consequently, the following two research questions wereexamined:Question 1: What are the barriers to academic success of second career seeking (SCS) students?Question 2: How effective is the proposed system of interventions, including professionaldevelopment, hands-on research projects, and mentoring, in providing SCS students with aversatile support network that incorporates curricular and co-curricular activities for professionaldevelopment?The proposed program emphasizes manufacturing of advanced materials (MAM) as a way toconnect SCS students to faculty and industry mentors who facilitate their academic success andcareer placement in the STEM workforce [4-5]. The educational research element of the programis focused on
how technical the ES are cannot be the sole explanation. Perhapsmore than any other element of the engineering curriculum, the ES play important definitionaland normative roles in what an engineer is and what engineering education should be all about.After studying the first two semesters of basic math, basic sciences, perhaps an Introduction toEngineering course, and one or two lower-level HSS courses, engineering students enter thisspace of the curriculum that bridges for them the basic math and sciences, on one hand, and Page 26.806.3engineering practice and design at the other. The ES is what has allowed engineering to reaffirm its
chose to includeadditional engineering content. The EiE curriculum includes preparatory lessons that precede Page 25.512.4the EiE units and four-lesson units. Within the actual units, students read an engineeringstorybook in lesson one, learn about a specific engineering field in lesson two, collect andanalyze scientific data in lesson three and complete an engineering design challenge in lessonfour. Students practice reading, writing, mathematics and science skills integrated with theengineering skills and concepts that they are learning. The units are hands-on in nature,particularly lessons three and four. As a comparison, the instrument was
the student teams applied for a provisional patent for their design. This work serves as an example to future participants as a way to maximize their learning potential. Care must be exercised to make sure o the selected projects are doable within the time period o adequate data is readily available o the project is in the area of manufacturing design engineering o the project does not depend on one student. The capstone process exposed some of the deficiencies in the program including materials covered, instruction and instructors. Integrating a project based assignment for the entire program duration would benefit the students in
do we teach engineering students about materials? Materials science is a discipline, like any other branch of science. There are powerfularguments for the approaches to teaching of any one of these: the scientific method, therigour, the ability to apply logical thought and reasoned experimentation to physical problemsin the broadest sense. And the subject of materials is a broad one, drawing togetherunderstanding from physics, from chemistry, from mathematics and – these days – fromcomputer science 1-11. But while the study of materials bridges these “pure” disciplines, it is,in the end, an applied science. Engineering schools include and value its teaching becauseengineers make things, and they make them out of materials. The
Session ___ Teaching the molecular simulation of materials to a diverse cross-section of engineering graduate students Michael L. Falk Department of Materials Science and Engineering, University of Michigan, Ann Arbor, MI 48109-2136Over the past two years the Materials Science and Engineering (MSE) department at theUniversity of Michigan has offered a graduate level class in molecular simulation of materials.This class has attracted enrollment both from within MSE and from other engineering disciplinesas well as Physics and Applied
providing opportunities toenhance communication and hands-on problem solving skills9. The research described in this paper was to successfully develop, implement, and test guidedinquiry modules into Construction Materials, a required Civil Engineering Technology course atthis University, taught every spring semester. In the present research study, the duration of asingle module varied, but typically covered more than one class period, and usually one to twoweeks of class time. The authors hypothesized that instruction using guided inquiry modules(treatment) would result in greater perceived learning gains and better performance on examsthan through traditional lecture instruction (control). The focus, guided by recent findings and developing
Page 24.1354.1 c American Society for Engineering Education, 2014 Utilizing Rep-Rap Machines in Engineering CurriculumIntroductionIn this ABET accredited manufacturing engineering program, the lead author has been teachingthe Rapid Prototyping and Reverse Engineering course for 8 years at Robert Morris University(RMU). The basic curriculum has been well set other than the new developments. The newdevelopments are added to the course content on an annual basis due to the dynamic nature ofboth fields. In addition, the laboratories have been equipped with multiple relevant technologiesincluding Stereolithography (SLA Viper), Fused Deposition Modeling (Dimension Elite), and3D Printing (Prometal RXD
skills to meet evolving workforce demands, seekingprofessional development, expanding opportunities for professional advancement, or pursuing amanagerial position. To support this goal, the emphasis is on the applied aspects of thetechnological spectrum, such as product improvement, industrial practices, and engineeringtechnology operation. The curriculum is multidisciplinary, and includes core courses in suchareas as modern materials, rapid prototyping, programmable devices and systems, modernenergy conversion technologies, sensors, measurements and microfabrication. In addition tothese core courses, electives are offered in areas such as reliability engineering, leanmanufacturing principles, green manufacturing, and project management. The