to Control andInstrumentation Engineering Technology students at the University of Houston –Downtown. Theobjective of this course is the computer aided design and optimization of process operations.Processes are selected from major industrial sectors such as chemical, refining and bio-processes.Modeling and simulation of these processes is facilitated by using the Aspen Engineering suite oftools. Such tools are widely used by the process industries to design and optimize processoperations. By completing this course, students learn about different processes, equipment andoptimization techniques. Groups of three to four students work together on team projects. Theorganization, execution, and results from such projects demonstrate the skills
AC 2011-1383: AN ASSESSMENT OF CREATIVE CAPABILITIES IN TECH-NOLOGICAL DESIGNLeslie Reed, Purdue University Ms. Reed is the founder and CEO of Reed Environmental, Inc., a comprehensive safety, industrial hygiene and environmental consulting firm founded in 1989. She is presently working on a PhD in Technology from Purdue University.Michael J. Dyrenfurth, Purdue University, College of Technology, West Lafayette Michael Dyrenfurth is professor in the Department of Industrial Technology at Purdue University. He is co-PI of the DETECT and Atlantis Concurrent MS degree projects. Active in international aspects of the profession, he teaches and researches in the areas of technological innovation, technological literacy
packages available to professionals.Allowing students to learn the software step by step (modeling, analysis, and design) in asequential approach through successive interrelated core and elective courses (StructuralAnalysis, Reinforced Concrete Design, and Steel Design), supplies the students with thefundamentals needed to tackle large projects on their own. This paper illuminates the variouslearning projects that were given to the students in the courses mentioned above. The papercontinues with a demonstration to a practical application as civil engineering students usedSAP2000 to design a pedestrian bridge for the required capstone senior design course. Theproject allowed the students to further explore the various design capabilities of SAP2000
A Study of Learning Styles and Team Performance Musa K. Jouaneh1 Department of Mechanical Engineering & Applied Mechanics University of Rhode Island Kingston, RI 02881Abstract This paper reports on a study that was performed over a 4-year long period in which theperformance of undergraduate mechanical engineering students on a team project, enrolled in asenior mechanical systems course at the University of Rhode Island, was correlated with theirlearning styles as measured by the Brain Dominance Model. To measure the learning style ofeach student, the Brain Works program
Session 1339 Rate of Return – Must We Bother? Robert H. Mayer United States Naval AcademyAbstractRate of return (ROR) is a widely accepted criterion for determining the economic viability of anengineering project or other investment alternative. Similarly, incremental rate of return (IROR)is often used to choose the best alternative among several. Accordingly, most engineeringeconomy textbooks provide appreciable instruction in ROR and IROR applications, oftencovering one or two chapters of text. As a result, computation of the ROR is certainly
. This paper discusses the main reason that led to the introduction of design in this course, the process that was followed to achieve integration of design, examples of projects that were carried out by students, the benefits and disadvantages that have been identified, and the author’s assessment of the whole experience. 1. Reason for adding design into the course: Need for reform Design was added to the first course in fluid mechanics to respond to the criticisms of engineering education that were prevalent in the literature at the end of the 1980's and the beginning of the 1990's. People who wanted reform criticized engineering education. They charged that graduates of American Engineering
workforce gaps in buildings specializations. Therefore, the initiative seeks to inspire the nextgeneration of building scientists. The author of this paper became a member of the Professor Teamfor the 2022-2023 Program Challenges by implementing a project development activity in thegraduate course MENG 5318 – HVAC. Four teams of four students participated in the challenge. Thechallenge topics were “It’s Electric,” “Curb Your Carbon,” and “Sustainable and Resilient.” Studentsin the course participated in the Curb Your Carbon challenge. The project ideas proposed by theinstructor were in the topic of Evaporative Cooling. The project ideas were an opportunity for studentsto put in practice the material learned in the course, as well as an opportunity
students for productive careers in research—either in academia orindustry—by means of (a) introducing students to the research process; (b) mentoring students tobecome independent, intellectual thinkers; and (c) teaching the art of technical communication.With their application form, students select two of the 4 tracks, which helps matching selectedapplicants with research projects in their favorite topics within neural engineering.Each student research team has a research project and receives the support of one main facultyadvisor, one graduate coach, and two or more supporting faculty advisors who work in a similararea of research as the main faculty advisor. The main faculty advisor defines the generalhypothesis/ goal of the research project
of Technology (Georgia Tech) this fall as an Electrical and Computer Engineering major. Yousuf specializes in basic computer programming, website design, computer graphics design, file mapping, and various other basic component of computers. Yousuf has attended various engineering seminars at Georgia Tech. and NASA, received the ”Best in Festival” award at the International Student Media Festival for website design, and was an intern at the local IT company Speros. During this wireless robot project, Yousuf was asked to create a 3D drawing of the with approximate dimensions. Using Solidworks, the 3D CAD drawing was completed in the duration of two days
arnthe them latest to engineeringtechnologyusedintheindustryagain valuable practical experience in the process. Thanks to a grant from National SFoundation (NSF) Advanced Technology Education (ATE) division, in fall 201, a MechatronicsTechnology Center (MTC) was established in the department of mechanical engineertechnology department to introduce the latest mechatronics technology to themechanical engineering technology department as well as to the students in theengineering technology department. Many hands-on mechatronics designed projects havcreated for students to learn the latest robotic/mechatronics technology either
can replace traditional programs anytime soon, particularly in engineering schools. Many higher educationalinstitutions are increasing the visibility of their traditional programs byoffering online options. Still, many academicians debate whether onlineeducation can effectively communicate the essence of the lecture withoutcompromising on quality. However, experts affiliated with traditionalprograms hesitate to denounce online education since it's the best optionfor some people and the Internet has proved useful in augmenting theresources available for use in traditional classrooms.In this age, it appears that students want more instruction, integration,team building, communication and quantitative skills, and real world casestudies, projects
the specific context of engineering consulting by studying one mid-size, Canadianengineering services firm. More specifically, the research question we seek to address is who isidentified as a leader inside engineering consulting firms and why; for example, what skills,qualities or other attributes are recognized within the firm? By examining engineering leadershipin situ, we acknowledge the prospect that “engineering leadership” may be impacted by thecontext in which it is practiced. This work will support engineering educators in furtherunderstanding engineering leadership, particularly for Capstone, design, and other problem-based, project-based courses where students are meant to be situated in replicated professionalpractice
challenges that are important for all engineering students toconsider.ExamplesChemical Engineering at Northeastern UniversityAn international, interdisciplinary, month-long, faculty-led program in Brazil, focused onsustainable energy was designed to provide experiential learning opportunities todiscuss technical engineering concepts in relation to social, cultural, and environmentalissues. A holistic pedagogical framework was used to develop the program’sdeliverables and educational content. The three main program elements are coursecontent, company/government/community visits, and a company project. Thepedagogical elements were combined and scaffolded to ensure that the learningoutcomes from the courses connected to the site visits and were applied
than 9.5% of engineering professionals are African American,Hispanic American or Native American. The project team includes Michigan Technological University (Dr. Neil Hutzlerand Joan Chadde), Foundation for Family Science/David Heil & Associates, and theAmerican Association for Engineering Education (Dr. William Kelly and SamanthaMurray), along with Dr. Christine Cunningham, who has developed the Engineering isElementary (EiE) curriculum now used in 46 states, will participate in development of thematerials. ASEE will help to disseminate the Family Engineering project to more than 50engineering societies, student chapters, and engineering professionals. This project brings engineering education to the elementary family unit
Laboratory OverviewThe concept of the new energy conversion and electric drives laboratory was birthed in the fallof 1997 with an original estimate of $275,000 to replace essentially all existing equipment. Theproposed layout for this laboratory is shown in Fig. 1. Three components were identified fordesign and fabrication through senior design and student design projects: 1) automated loadbanks (ALB), 2) power processing station, (PPS) and 3) power workstation benches (PWB).The new student laboratory was designed around the PWB, which obtains access to power andload resources located in the utility room via a PC with a National Instruments Data AcquisitionCard and LabView control interface. These resources include 208 and 240 Vac 3-phase
Department of The University of Arizona, it isnot unusual for the Control System Design course to have enrollment of about 100 students. Thismakes offering a lab section with the course nearly impossible. As a way to avoid canceling thepractical experience of the course, we developed an inexpensive and portable setup, which canbe taken home by the students, and they can work on it as their term project. Besides addressingour organizational problems, this solution brought an opportunity to demonstrate to students amodern approach towards control systems using computers and implementing the controller insoftware.II. Experimental setup descriptionThe setup consists of a small DC electrical motor, operating at 0-5V, attached to one of the endsof a light
than 9.5% of engineering professionals are African American,Hispanic American or Native American. The project team includes Michigan Technological University (Dr. Neil Hutzlerand Joan Chadde), Foundation for Family Science/David Heil & Associates, and theAmerican Association for Engineering Education (Dr. William Kelly and SamanthaMurray), along with Dr. Christine Cunningham, who has developed the Engineering isElementary (EiE) curriculum now used in 46 states, will participate in development of thematerials. ASEE will help to disseminate the Family Engineering project to more than 50engineering societies, student chapters, and engineering professionals. This project brings engineering education to the elementary family unit
project is the most comparative experienceto that of the industrial workplace. During this project, students are given the opportunity,usually as a team, to utilize all of their previous coursework to accomplish a common technicalgoal. However, this project only covers one year. Industrial partnering can be used to prepareengineering students throughout their scholastic career for an ever-growing industrial setting. Apartnership between a college or university and a company can give students exposure to avariety of industries, allowing them to make well-informed decisions when actively seekingemployment. Such a relationship also has the potential to blossom into a recruiting process forthe college involved. There are an infinite number of ways to
convergent parallel mixedmethod design, collecting both quantitative and qualitative data, simultaneously, to answer tworesearch questions 1) What trends are Program Officers seeing in the Broader Impacts criterionand 2) Which Broader Impacts statements are being addressed in Project Summaries submitted tothe National Science Foundation. The quantitative approach consisted of examining 82 awarded Project Summaries in theEEC division to obtain a quantifiable assessment of the extent to which PIs who applied to EECaddressed the Broader Impacts suggestions outlined in NSF’s Proposal and Award Policies andProcedures Guide. The qualitative approach involved interviews of four program officers from theEEC division regarding the trends in addressing
programming students through various K-12 educational activities. Dr. Estell is a Member-at-Large of the Executive Committee for the Computing Accreditation Commission of ABET, and also serves as a program evaluator for the Engineering Accreditation Commission. He is also a founding member and serves as Vice President of The Pledge of the Computing Professional, an organization dedicated to the promotion of ethics in the computing professions through a standardized rite-of-passage ceremony. c American Society for Engineering Education, 2018 Partnering to Develop Educational Software Applications: A Four-Year Retrospective StudyIntroductionSeveral years ago, a project
the Executive Committee for the Computing Accreditation Commission of ABET, and also serves as a program evaluator for the Engineering Accreditation Commission. He is also a founding member and serves as Vice President of The Pledge of the Computing Professional, an organization dedicated to the promotion of ethics in the computing professions through a standardized rite-of-passage ceremony. c American Society for Engineering Education, 2018 Partnering to Develop Educational Software Applications: A Four-Year Retrospective StudyIntroductionSeveral years ago, a project was added to the first-year programming sequence at Ohio NorthernUniversity that focused on
AC 2012-4088: INTEGRATING INNOVATIVE PEDAGOGIES INTO EN-GINEERING ECONOMICS COURSESDr. Naveen Seth, New Community College at CUNY Naveen Seth is a founding faculty member in business at the City University of New York’s New Commu- nity College. He has also taught at Pratt Institute in the Construction Management Program. At Vaughn College of Aeronautics and Technology, he headed the Aviation Management programs and also taught engineering economics in the B.S. program in engineering.Prof. Donald P. O’Keefe, Farmingdale State College Donald P. O’Keefe has 15 years experience teaching at the college level. He taught courses in engineering graphics, quality control, and project management
professionals isleading universities to adapt their curricula and provide adequate BIM training for the next-generation professionals. The senior design class is a core course for last-year students in manyArchitecture, Civil, and Construction engineering programs. Students are given opportunities towork on a real building project through multiple class activities, BIM software, and lectures bypractitioners. The goal of this research was divided into two parts: 1) Evaluate the teachingmethods for delivering BIM topics in a senior design class. A questionnaire survey was distributedto students; 2) Fill the gap about the need for more research to be conducted on the solutions forimplementing BIM in the AEC industry. The existing research may have
their personal lives. The students aresurveyed after each of seven guest lectures using quantitative and qualitative measures. Resultsshow that students reported valuing these trainings with respect to each category, with the valueto their professional careers being the highest ranked. This study shows students approve oflearning leadership topics through guest lectures even when assigning varying degrees of valuefor each lecture and each of the three categories. However, students do not understand how thesetopics can relate to their project such that they can apply these trainings for the development ofthe skills. This study will help define better practices for leadership education within engineeringcurriculums to help determine whether
(FYEP) to better prepare students to identify problems and develop solutions aspracticing engineers.BackgroundUpon joining the network, our initial EML implementation efforts focused on restructuring thedesign-build project of our standard course sequence in the FYEP by centering it around the 3Cs.This began by visiting other KEEN institutions to understand how EML is implemented in theirfirst-year engineering courses [12]–[14]. Following these visits, various concepts from the 3Cswere explicitly added to the course curriculum to ensure students were becoming familiar withthe 3Cs and actively applying them in their project work.As it currently stands, the standard course sequence consists of two courses where the secondcourse (ENGR 1182) is
Session XXXX 3-4 A Solar Still for Sophomore Design Richard Bannerot Department of Mechanical Engineering University of Houston AbstractA six-week long team project (design, build and test a solar still) conducted in asophomore design course is described. Eight stills were constructed and then testedduring a four-hour period around solar noon under very good solar conditions. Theperformances of the individual stills were
development of newteaching material and activities (courses, student design projects, and research) related to mixed-signal embedded system design11,12. The developed material includes the following: • Complete course material for a one-semester course on embedded mixed-signal systems. The course is designed for senior undergraduate students and first-year graduate students in Electrical and Computer Engineering (ECE). This material is due to be published as a textbook and is available at www.cypress.com . For an evaluation copy please contact cuap@cypress.com. Page 13.927.3 • Related laboratory material was
engineering design projects bring together knowledge from differentsources. They collaborate among themselves, share design knowledge, and negotiate with eachother, faculty members and the client, in order to create engineering artifacts. This process ofteninvolves reuse of previous knowledge and the creation of new knowledge within the context ofthe problem. Such knowledge building is a key process skill that engineers need to acquireduring their education.Ideally in team projects, students co-construct the knowledge necessary to realize their designsthrough the process of proposing, counter-proposing, questioning, arguing, agreeing, anddissenting. A major problem student teams face is learning how to organize and share ideas. Thisfrequently results
. Page 14.1375.1© American Society for Engineering Education, 2009 WIND TURBINES TO TEACH PARAMETRIC DESIGNA project in which teams of students are asked to design and build horizontal axis wind turbinerotors is presented. The goal of each team was to develop the greatest electrical power outputgiven the constraints of wind velocity, swept area, a specified hub and mounting. In practice, thedesign of wind turbines is extremely complex. Therefore, to make the project tractable tosophomore level undergraduates, significant constraints were placed on the problem statement,which allowed calculations to inform teams’ decisions. To evaluate design instances withoutconstructing rotors, the students developed a computer program to predict
medicalresearch are available in the market such as EnvisionTEC 3D-Bioplotter, however they areusually extremely expensive. Collaborating with the medical school, this project will design andbuild new extruding systems on a low-cost RepRap machine. One RepRap Prusa i3 printer ismodified able to extrude independently two different hydro-gels dedicated to the stem cellresearch. The modification is expected to utilize other 3D printing methods to create parts. Thisis a team's Capstone Design Project with students involved to promote and extend theapplications of 3D printing. Student working processes of design, hardware modification, as wellas testing procedures will be observed and recorded. The project activities, the testing results,and the students