Pressure, Saturated) conditions. The software offersmany options for the convenient display of automatically-calculatedvalues; however, these direct measurements at BTPS conditions arethe only values necessary to perform the calculations involved in this experiment. Thecalculation/display options may be exercised in order to provide numbers against which studentsmay check their calculations.For their laboratory report, students perform all calculations by hand. In a subsequent laboratoryperiod, students are introduced to the process simulator, HYSYS. In an in-class activity, studentsuse HYSYS to draw a simple process flow diagram of the respiration cycle. They provide theirdata and allow HYSYS to perform material and energy balances on the
Paper ID #7327Creating a STEM School Using Engineering ConnectionsDr. Laura Bottomley, North Carolina State University Dr. Laura Bottomley received a B.S. in Electrical Engineering in 1984 and an M.S. in Electrical Engi- neering in 1985 from Virginia Tech. She received her Ph D. in Electrical and Computer Engineering from North Carolina State University in 1992. Dr. Bottomley worked at AT&T Bell Laboratories as a member of technical staff in Transmission Systems from 1985 to 1987, during which time she worked in ISDN standards, including representing Bell Labs on an ANSI standards committee for physical layer ISDN
cause is going to require theeducated attention of many disciplines. One of these has to be engineering as engineers aretrained in the practical application of science and technology to meet human needs. What isbeing presented here is how we have restructured part of our course to provide lecture contentand laboratory experiences on global warming.We are fortunate to have a course that provides the framework to accomplish this, our freshmancourse EGR 190 Fundamentals of Engineering and Computer Science (FECS).This course has been modified to include pre and post global warming perception surveys, anintroduction to global warming using the video “An Inconvenient Truth”, mini lectures onalternative energy and two lectures and labs involving solar
experientiallearning provided by these programs either in design studio or through internships or co-opprograms. These experiential components vary in duration and intensity, further contributing tothe distinctiveness of each program. Architectural engineering program durations vary amongstinstitutions based on the experiential components. Some programs are designed to be completedin a traditional four-year timeline, while others, particularly those with extensive co-op orinternship components, may extend to five years or more. These variations in program durationare reflective of the emphasis placed on practical experience and industry readiness, as well asthe regional or institutional norms. This research provides a valuable resource for botheducational
, Communication, Problem Solving, or Networking and Resumes. Sometimes this occurs in the evening hours, if more time is required. • Case Problem presentation or analysis. During the sophomore year the academic theme is probability and statistics. There is one case problem each semester. The first is less quantitative and uses various analytical tools, such as cause and effect diagrams, histograms, process flow charts, Pareto diagrams, and force field effects, to draw inferences from industry problem scenarios. The second occurs while they are taking statistics and involves design of an experiment and analysis of variance calculations. They determine which variables have a significant effect on the output of a
big university campus and become frustrated. Some studentsleave the university because they just never felt like they fit in. The transition to life on campusand the rigors of higher level academics is not always easy.This paper presents a review of a new introductory course required for students entering theComputer Integrated Manufacturing Technology (CIMT) program at Purdue University. Thisone credit course (meeting once a week throughout the semester) has been designed to helpprepare students for the academic life ahead of them. Students are presented with a variety ofdifferent views of the CIMT major, the current trends in industry, and to some of the resourcesand activities available to them while they are here on campus. Class meetings
athletic shoes.(2) An oscilloscope is used to capture the acceleration-time data and a PC is used to process the data. When used as a classroom or laboratory demonstration, orlaboratory/project assignment, this experiment illustrates the following to the student: 1. Determination of the impact force-time record using Newton’s law. 2. Evacuation of the displacement-time record by double integration of the acceleration and enforcing proper initial conditions. 3. Technique and advantages of smoothing the experimental data. 4. Convenience of spreadsheet software to process and analyze the raw data, and to plot the results. 5. The energy absorbing and loading-rate effects of using a material such as foam.Test Apparatus and Procedure
, and Introduction to Control Systems to asynchronous delivery.This paper presents Internet and Web technologies needed for developing a Web-based Laband summarizes the project experience that supports our distance learning courses. Thispaper is organized as follows: section II explores Web-based Lab system design issues,section III describes implementation and maintenance of the Web-based Lab system, andsection IV provides some laboratory examples of a Web-based Lab.II. Web-based Lab System DesignTo gather the system requirements, the first question asked was what kind of laboratoryexperiments would this Web-based Lab support. We identified the following desired labactivities: - Understanding of Web Server and Internet I/O Control
determinedrainage in the students’ projects. HEC-RAS is basically the windows version of HEC-2. It wasclear from the beginning that the students needed more than an introduction to the use of thesetwo programs to be able to conduct watershed runoff and backwater curve computations. Longerand longer periods of time were necessary to instruct the students in the use of these necessarytools. This took valuable time away from the laboratory hydraulic experiments conducted as partof the required course. At this time, the module was developed as a learning aid in the proper useof both programs: HEC-1 and HEC-RAS. This module also includes instructions on basichydraulic and hydrologic principles.The module was alpha and beta tested. The module was first alpha
Engineeringstudents take this course. Two primary methods were utilized to achieve the goal.One method used to achieve the goal was the development of a framework of questions andactivities that were used in tandem with descriptive lab experiments to improve the studentlearning and enhance facilitation of technical writing. The framework consisted of worksheetstailored to each lab with a focus on a particular aspect of the lab report that they would be requiredto submit (e.g., methods, results, and discussion). The worksheets sought to incorporate bestpractices of teaching writing to engineers [5] including using interactive writing processes,designing meaning-making writing tasks, articulating clear writing expectations, prioritizingassignment quality over
science inquiry learning activities inprovide a software! Virtual Lab technology adapts this concept the classroom and in outdoors settings?and provides education to as much remote as possible locations. This paper focuses on our design and technicalVirtual Lab is an Embedded Android Mobile Application that efforts in relation to system and software development tointerfaces with the real physical lab equipments and makes itpossible to conduct experiments from remote location. Virtual support science inquiry learning by means of efficient use ofLab is connected to main Lab from a Remote lab using Internet. virtual lab with the help of different
labs to be conducted. The TAs demonstrated the experimentand the students were asked to replicate the demonstration. This was the traditional method.Many students complained of lack of individual focus. 12 TAs were trained to use the newmethodology in the first week of Spring 2008 and Fall 2008. All the TAs used the newmethodology during the 2 semesters.The steps in the new methodology included watching a trained presentation, engaging thestudents in group discussions, staying with the group while they perform the experiment,developing a rubric for evaluation of student reports, providing a link between experiments andtheory, and helping the students to pick up a lifelong learning objective. The course content andthe laboratory experiments
AC 2012-3756: A FORMAL RESEARCH STUDY ON CORRELATING STU-DENT ATTENDANCE TO STUDENT SUCCESSMr. Jason K. Durfee, Eastern Washington University Jason Durfee received his B.S. and M.S. degrees in mechanical engineering from Brigham Young Univer- sity. He holds a Professional Engineer certification. Prior to teaching at Eastern Washington University, he was a military pilot, an engineering instructor at West Point, and an airline pilot. His interests include aerospace, aviation, professional ethics, and piano technology.Dr. William R. Loendorf, Eastern Washington University William R. Loendorf is currently a Full Professor of engineering and design at Eastern Washington Uni- versity. He obtained his B.Sc. in engineering
last for two weeks. About 20 students will beadmitted into the camp each year. Some topics to be covered in the camp will include computerengineering, math, physics, english, electrical engineering, and laboratory exercises withLEGOs, plant visits, and engineering ethics. Table 3 shows a tentative schedule of activities forthe camp.By having the summer camp, we intend to get more students interested in the Engineeringprofession. The positive experience of the high school students due to the engineering campmay turn them on to study engineering. In addition, the summer camp will make the studentsunderstand that engineering can be fun, rewarding, and beneficial to society. Table 3 Tentative Schedule of Activities for the Summer Camp
compare their design’sempirical results to their simulated and predicted results for understanding of the smalluncertainties that are associated with electromagnetic studies. For our purposes in this projectwe focus primarily on the axial mode of propagation helical antenna. However, we also includethe topics of the radial mode propagation helical and dielectric loading of the core. This part ofthe experiment explores how a material with a higher permittivity than air can electricallylengthen an antenna causing it to operate at a lower frequency than intended by initial design. In the construction and testing phases of the helical we discuss the many engineeringchallenges that students have to overcome in order to make their antennas
areas. The research on CMCs has long been identified as one of the strengths of both UT and ORNL. Asignificant amount of research endeavor, covering the fabrication, characterization, modeling, and design ofCMCs, has been conducted at both UT and ORNL for many years. The participating UT faculty members andORNL scientists have extensive research experience on CMCs. They are highly qualified for and are willingto interact with undergraduate and graduate students in the areas of their expertise. Furthermore, the studentsare exposed to the complete and state-of-the-art facilities and equipment at ORNL and UT. Page 1.98.3
. These experiments requirecollaborative learning through teamwork. The program consists of a two week on-campus session at Rowan University wherein students interact with departmental faculty,undergraduate engineering students and representatives from local industry. Programsspecifically focus on hands-on engineering laboratory experiments, field trips, workshopson engineering ethics, and computer training sessions.A cosmetics module was recently added to the workshop. Girls at this age are interestedin various cosmetics such as lipsticks, eye shadow and lip gloss. However, few recognizethat engineers are vital to the cosmetics industry. The cosmetics module introduces theparticipants to the ingredients in lipstick and their physical properties
government institutions. Teaching Structural Design Topics such as Design of Steel Structures and Design of Reinforced Concrete Structures, also Structural Engineering Capstone Project. © American Society for Engineering Education, 2022 Powered by www.slayte.comA Challenge-based Teaching model for Structural Analysis Courses with StrategicIndustry PartnersAbstractIn this paper we present a challenge based teaching model for Structural Analysis courses withinthe framework of our education model, namely Tec21 in which some courses are taught with theparticipation of an industry partner. The content of this course is usually complex and someprinciples and concepts are difficult for
laboratory courses.Conclusion The Center has found that technology education is the natural K- 12 link to engineering, particularly so inthe MST environment. Design creativity and understanding and using science and mathematics in designanalysis are important elements of technology education. These same elements characterize engineering. Manyengineering schools have developed “pipeline” activities to increase engineering enrollment and interest inengineering, however this does not address the larger issue of technological and scientific illiteracy of students.Support of technology education offers an opportunity to address this issue in a modest yet significant manner.Technology education offers a way for students to understand the abstract
developed to help studentsexperience and practice the skills required in design for computer-aided manufacturing (CAM)using a CNC mill. The primary objectives of this project were to provide students with practiceand experience a) designing a part to be mass produced by automated machining, b) generatingthe machine instructions for manufacturing the part using FeatureCAM software, and c)fabricating the part with the help of the machinist. Students who have completed this projectshould be able to design mass-produced parts that interface with multiple copies of other partsusing the concepts of clearance, tolerances, alignment, and fixturing as well as develop the toolpath to fabricate the part on a CNC mill. Secondary objectives involved developing
virtual learning in 2020. After returning to on-campusactivities, these kits continued to be used to enable open-ended group projects, hands-onhomework assignments, and pre-laboratory exercises. We developed an affordable multi-courseelectronics kit by condensing three current hardware kits in the Circuit Analysis, Mechatronics,and Design Methodology courses. By removing redundant components and replacing expensiveparts with cheaper alternatives, we reduced the cost of the condensed kit by approximately 30%compared to purchasing the three course-specific kits. To support the kit usage, we created anonline repository with electronic safety, microcontroller tutorials, basic hardware and softwareinstruction, and coding examples. We developed a pre
primary education system bycoordinating a number of Summer Youth Program scholarships for women and minoritystudents from the metro Detroit area between the ages of 12 and 18. The summer youthprogram (http://youthprograms.mtu.edu) offers young people the opportunity to familiarizethemselves with careers and to develop new skills through laboratory, classroom, and fieldexperiences. The program offers several options called "explorations" that allow different targetaudiences to come to campus and experience college life. The scholarships offered focus ontwo explorations in particular: Women in Engineering and Explorations in Engineering. The"Explorations in Engineering" track is for students underrepresented in engineering and sciencefields
2006-949: PROGRAM SYNERGY: ENGINEERING LABS USING FOUNDRYRESOURCESCraig Johnson, Central Washington University Craig Johnson (www.cwu.edu/~cjohnson) is the Coordinator of both the Mechanical Engineering Technology and the Cast Metals Industrial Technology Programs at Central Washington University. He is a Foundry Education Foundation Key Professor and has a P.E. in Metallurgy. Dr. J. is also a past chair of the ASEE Materials Division. He specializes in test design, interface characterization and process optimization (forming & casting).Joe Fuerte, Central Washington University Joe Fuerte is a student in the Masters of Science in Engineering Technology Program at Central
University of Chicago, MBA from the Illinois Institute of Technology, and M.A. in Education and Ph.D. in Instructional Design and Organization Development from The Ohio State University. He was J. Harris Ward Fellow while at the University of Chicago. Dr. Aron has edited and contributed to a number of science textbooks.Dr. Abour H. Cherif, DeVry University Dr. Abour H. Cherif (acherif@devry.edu) is the national associate dean of curriculum for math and sci- ence, and clinical laboratory sciences at DeVry University Home Office, Downers Grove, IL. He is past president (2008–2009) of the American Association of University Administration (AAUA). He holds a B.S. from Tripoli University, an MS.T. from Portland State University
Page 26.1105.2 c American Society for Engineering Education, 2015AbstractWe are working to create a culture of making at Bucknell University. We are doing this through a multi-path approach that makes tools widely and freely available, offers training in multiple ways, andencourages both curricular and co-curricular experiences in making. By taking existing workspaces oncampus, such as parts of the engineering project development laboratory and the sculpture studio, and re-imagining them as makerspaces, we are making tools and training more widely available without havingto start from scratch with a new facility. In addition, we are hosting “skill seminar” events whereuniversity community members can learn specific
the students are assigned a computer project which involves simulating a mechanismusing Working Model 2D software. The purpose of the project is to give students an opportunity todesign a mechanism without having to build a physical prototype, and to familiarize them withmechanism simulation software. Generally students have no previous experience using thissoftware. Therefore, one lecture session is set aside for students to be introduced to the software.Each project is designed such that it is difficult to solve analytically, thereby forcing the student toexplore the software while trying to solve the project. In order to minimize the number of differentsolutions for each project, mechanisms for which there is just one input are used. The
-III. It also repeatedly read the newenvironment variation data by connecting to the Web and reading the most recent data fromThingspeak CIoT service.The visualized information collected from the sensor observation data, the spending list forpurchased materials and components, and also the arrangement of the hardware assembly werepresented in the submitted report to the ASEE ETD committee for review and comments.Design, Manufacture and Testing of Optical Sensing Systems-Based Spectroscopy forEngineering Technology CurriculaMaurizio Manzo, University of North Texas The aim of the project was to develop a series of modules/laboratory experiences
’ supervisor, and a different facultymember playing the role of the client. Simultaneously, in the senior laboratory, students work inpairs, and they must prepare written reports and oral presentations for each experiment. Theseprojects and labs are an example of how students have the opportunity to develop skills over theentire curriculum. They develop their oral and written communications skills, the ability to workin teams of different sizes, the ability to work independently, the ability to learn things on theirown not covered in class, and the ability to attack comprehensive problems involving analysis ofentire chemical processes. Students receive feedback on each project, which allows them toimprove their skills in these areas as they proceed
concepts to be taught in the course and any necessary course prerequisites.3. The modules recommend in which courses the topic may be taught and suggest what older and obsolete material can be omitted to make time for the new material.4. The modules include relevant circuit simulations with suggestions for new laboratory equipment and software (e.g., Multisim) to ensure appropriate Page 9.1051.4 technician-level hands-on experience. “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004
students, and external expertscould provide material and context used to replace, supplement, or enhance traditional classroomand laboratory instruction. A key specification of the design and development of the videos wasthat they must be made available online, with plans for ubiquitous availability across classes,instructors, and sites. Each video lecture represented key components of content and contextknowledge. The videos were designed to meet the needs of students through multiple methods ofinstruction, including those with limited access, repeated access, sequenced access, and generalavailability. Initial evaluations of pilot use in the classroom, conducted in Fall 2010, Spring2011, and Fall 2011, provided formative feedback on students